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/***/
"./node_modules/arcgis-js-api/core/Quantity.js":
/*!*****************************************************!*\
!*** ./node_modules/arcgis-js-api/core/Quantity.js ***!
\*****************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiCoreQuantityJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ./unitFormatUtils */
"./node_modules/arcgis-js-api/core/unitFormatUtils.js"), __webpack_require__(
/*! ./unitUtils */
"./node_modules/arcgis-js-api/core/unitUtils.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (t, i, n, e) {
return function () {
function t(t, i) {
this.measure = e.measureForUnit(i), this.value = t, this.unit = i;
}
return Object.defineProperty(t.prototype, "isBaseUnit", {
get: function get() {
return e.isBaseUnit(this.unit);
},
enumerable: !0,
configurable: !0
}), t.prototype.toUnit = function (i) {
return new t(e.convertUnit(this.value, this.unit, i), i);
}, t.prototype.toBaseUnit = function () {
return this.toUnit(e.baseUnitForUnit(this.unit));
}, t.prototype.toDecimalString = function (t, i) {
return void 0 === t && (t = 2), n.formatDecimal(this.value, this.unit, t, i);
}, t;
}();
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
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/*!**********************************************************!*\
!*** ./node_modules/arcgis-js-api/core/quantityUtils.js ***!
\**********************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiCoreQuantityUtilsJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ./unitFormatUtils */
"./node_modules/arcgis-js-api/core/unitFormatUtils.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (r, t, e) {
function a(r, t, a, n) {
return void 0 === a && (a = 2), void 0 === n && (n = "abbr"), e.formatDecimal(r.toUnit(t).value, t, a, n);
}
function n(r, t, a) {
if (void 0 === t && (t = 2), void 0 === a && (a = "abbr"), "length" !== r.measure) throw new Error("quantity is not a length");
return e.formatMetricLength(r.value, r.unit, t, a);
}
function i(r, t, a) {
if (void 0 === t && (t = 2), void 0 === a && (a = "abbr"), "length" !== r.measure) throw new Error("quantity is not a length");
return e.formatMetricVerticalLength(r.value, r.unit, t, a);
}
function o(r, t, a) {
if (void 0 === t && (t = 2), void 0 === a && (a = "abbr"), "area" !== r.measure) throw new Error("quantity is not an area");
return e.formatMetricArea(r.value, r.unit, t, a);
}
function u(r, t, a) {
if (void 0 === t && (t = 2), void 0 === a && (a = "abbr"), "length" !== r.measure) throw new Error("quantity is not a length");
return e.formatImperialLength(r.value, r.unit, t, a);
}
function f(r, t, a) {
if (void 0 === t && (t = 2), void 0 === a && (a = "abbr"), "length" !== r.measure) throw new Error("quantity is not a length");
return e.formatImperialVerticalLength(r.value, r.unit, t, a);
}
function l(r, t, a) {
if (void 0 === t && (t = 2), void 0 === a && (a = "abbr"), "area" !== r.measure) throw new Error("quantity is not an area");
return e.formatImperialArea(r.value, r.unit, t, a);
}
function m(r) {
if ("angle" !== r.measure) throw new Error("quantity is not an angle");
return e.formatDMS(r.value, r.unit);
}
Object.defineProperty(t, "__esModule", {
value: !0
}), t.formatDecimal = a, t.formatMetricLength = n, t.formatMetricVerticalLength = i, t.formatMetricArea = o, t.formatImperialLength = u, t.formatImperialVerticalLength = f, t.formatImperialArea = l, t.formatDMS = m;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/core/tsSupport/makeTemplateObjectHelper.js":
/*!*******************************************************************************!*\
!*** ./node_modules/arcgis-js-api/core/tsSupport/makeTemplateObjectHelper.js ***!
\*******************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiCoreTsSupportMakeTemplateObjectHelperJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [], __WEBPACK_AMD_DEFINE_RESULT__ = function () {
return function (e, r) {
return Object.defineProperty ? Object.defineProperty(e, "raw", {
value: r
}) : (e.raw = r, e);
};
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/core/tsSupport/restHelper.js":
/*!*****************************************************************!*\
!*** ./node_modules/arcgis-js-api/core/tsSupport/restHelper.js ***!
\*****************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiCoreTsSupportRestHelperJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [], __WEBPACK_AMD_DEFINE_RESULT__ = function () {
return function (e, n) {
var t = {};
for (var r in e) Object.prototype.hasOwnProperty.call(e, r) && n.indexOf(r) < 0 && (t[r] = e[r]);
if (null != e && "function" == typeof Object.getOwnPropertySymbols) for (var o = 0, r = Object.getOwnPropertySymbols(e); o < r.length; o++) n.indexOf(r[o]) < 0 && (t[r[o]] = e[r[o]]);
return t;
};
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/interactive/manipulatorUtils.js":
/*!*****************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/interactive/manipulatorUtils.js ***!
\*****************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dInteractiveManipulatorUtilsJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../core/maybe */
"./node_modules/arcgis-js-api/core/maybe.js"), __webpack_require__(
/*! ../../../core/libs/gl-matrix-2/mat4 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/mat4.js"), __webpack_require__(
/*! ../../../core/libs/gl-matrix-2/vec3 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec3.js"), __webpack_require__(
/*! ../../../layers/graphics/dehydratedFeatures */
"./node_modules/arcgis-js-api/layers/graphics/dehydratedFeatures.js"), __webpack_require__(
/*! ../layers/graphics/graphicUtils */
"./node_modules/arcgis-js-api/views/3d/layers/graphics/graphicUtils.js"), __webpack_require__(
/*! ../support/stack */
"./node_modules/arcgis-js-api/views/3d/support/stack.js"), __webpack_require__(
/*! ../webgl-engine/lib/Geometry */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/Geometry.js"), __webpack_require__(
/*! ../webgl-engine/lib/GeometryUtil */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/GeometryUtil.js"), __webpack_require__(
/*! ../webgl-engine/materials/DefaultMaterial */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/materials/DefaultMaterial.js"), __webpack_require__(
/*! ../../interactive/Manipulator3D */
"./node_modules/arcgis-js-api/views/interactive/Manipulator3D.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, t, a, r, i, n, o, c, l, s, u, m) {
function p(e, t) {
var a = 1 !== t,
r = new u({
diffuse: e,
transparent: a,
writeDepth: !a,
cullFace: 2,
opacity: t,
castShadows: !1,
softwareInstanced: !0
}, "manipulator");
return r.renderOccluded = 4, r;
}
function v(e, t, a) {
return new m.Manipulator3D({
view: e,
renderObjects: [{
geometry: new l(s.createSphereGeometry(1, 32, 32), "manipulator"),
material: p(t, a)
}]
});
}
function g(e, t, a, n) {
var o = i.vec3.subtract(c.sv3d.get(), e, a),
l = i.vec3.cross(c.sv3d.get(), n, o),
s = d(o, l, a, c.sm4d.get());
r.mat4.invert(s, s);
var u = i.vec3.transformMat4(c.sv3d.get(), t, s);
return Math.atan2(u[1], u[0]);
}
function d(e, t, a, r) {
var n = i.vec3.normalize(c.sv3d.get(), e),
o = i.vec3.normalize(c.sv3d.get(), t),
l = i.vec3.cross(c.sv3d.get(), n, o);
return r[0] = n[0], r[1] = n[1], r[2] = n[2], r[3] = 0, r[4] = o[0], r[5] = o[1], r[6] = o[2], r[7] = 0, r[8] = l[0], r[9] = l[1], r[10] = l[2], r[11] = 0, r[12] = a[0], r[13] = a[1], r[14] = a[2], r[15] = 1, r;
}
function f(e, t) {
var r = e.view.getViewForGraphic(t),
i = a.isSome(r) && "computeAttachmentOrigin" in r ? r.computeAttachmentOrigin(t, e.view.spatialReference) : null;
a.isSome(i) ? e.elevationAlignedLocation = i : h(e, t.geometry);
}
function h(e, t) {
if (!a.isNone(t)) {
var r = o.computeCentroid(t);
a.isNone(r) || (e.location = n.hydrateGeometry(r));
}
}
Object.defineProperty(t, "__esModule", {
value: !0
}), t.createManipulatorMaterial = p, t.createSphereManipulator = v, t.calculateInputRotationTransform = g, t.calculateTranslateRotateFromBases = d, t.placeManipulatorAtGraphic = f;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/interactive/measurementTools/directLineMeasurement3D/LaserLineRenderer.js":
/*!***********************************************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/interactive/measurementTools/directLineMeasurement3D/LaserLineRenderer.js ***!
\***********************************************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dInteractiveMeasurementToolsDirectLineMeasurement3DLaserLineRendererJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../core/tsSupport/extendsHelper */
"./node_modules/arcgis-js-api/core/tsSupport/extendsHelper.js"), __webpack_require__(
/*! ../../../../../core/libs/gl-matrix-2/vec2f64 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec2f64.js"), __webpack_require__(
/*! ../../../../../core/libs/gl-matrix-2/vec3 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec3.js"), __webpack_require__(
/*! ../../../../../core/libs/gl-matrix-2/vec3f64 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec3f64.js"), __webpack_require__(
/*! ../../../../../core/libs/gl-matrix-2/vec4 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec4.js"), __webpack_require__(
/*! ../../../../../core/libs/gl-matrix-2/vec4f64 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec4f64.js"), __webpack_require__(
/*! ../../../webgl-engine/lib/glUtil3D */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/glUtil3D.js"), __webpack_require__(
/*! ../../../webgl-engine/lib/Util */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/Util.js"), __webpack_require__(
/*! ../../../webgl-engine/materials/internal/MaterialUtil */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/materials/internal/MaterialUtil.js"), __webpack_require__(
/*! ../../../webgl-engine/shaders/LaserLinePrograms */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/shaders/LaserLinePrograms.js"), __webpack_require__(
/*! ../../../../webgl/renderState */
"./node_modules/arcgis-js-api/views/webgl/renderState.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, t, i, r, n, o, s, c, a, f, l, p, h) {
function u(e, t, i, r) {
var o = m,
c = v;
n.vec3.transformMat4(o, t, r), n.vec3.copy(c, i), c[3] = 0, s.vec4.transformMat4(c, c, r), s.vec4.set(e, c[0], c[1], c[2], -n.vec3.dot(c, o));
}
var m = o.vec3f64.create(),
v = c.vec4f64.create(),
_ = {
glowColor: [1, .5, 0],
glowWidth: 8,
innerColor: [1, 1, 1],
innerWidth: 1,
globalAlpha: .75
};
return function () {
function e(e, t) {
void 0 === t && (t = {}), this._projInfo = c.vec4f64.create(), this._zScale = r.vec2f64.create(), this._focusPlaneActive = !1, this._focusSphereActive = !1, this._segmentActive = !1, this._focusPosition = o.vec3f64.create(), this._focusSpherePosition = o.vec3f64.create(), this._segmentStartPosition = o.vec3f64.create(), this._segmentEndPosition = o.vec3f64.create(), this.canRender = !0, this._tempNormal = o.vec3f64.create(), this._tempDir = o.vec3f64.create(), this._tempUp = o.vec3f64.create(), this._tempVec3 = o.vec3f64.create(), this._tempVec4 = c.vec4f64.create(), this._renderCoordsHelper = e, this._params = l.copyParameters(t, _);
}
return Object.defineProperty(e.prototype, "renderSlots", {
get: function get() {
return [14];
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(e.prototype, "needsLinearDepth", {
get: function get() {
return !0;
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(e.prototype, "focusPlaneActive", {
get: function get() {
return this._focusPlaneActive;
},
set: function set(e) {
e !== this._focusPlaneActive && (this._focusPlaneActive = e, this._requestRender());
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(e.prototype, "focusSphereActive", {
get: function get() {
return this._focusSphereActive;
},
set: function set(e) {
e !== this._focusSphereActive && (this._focusSphereActive = e, this._requestRender());
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(e.prototype, "segmentActive", {
get: function get() {
return this._segmentActive;
},
set: function set(e) {
e !== this._segmentActive && (this._segmentActive = e, this._requestRender());
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(e.prototype, "focusPosition", {
get: function get() {
return this._focusPosition;
},
set: function set(e) {
n.vec3.copy(this._focusPosition, e), this._requestRender();
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(e.prototype, "focusSpherePosition", {
get: function get() {
return this._focusSpherePosition;
},
set: function set(e) {
n.vec3.copy(this._focusSpherePosition, e), this._requestRender();
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(e.prototype, "segmentStartPosition", {
get: function get() {
return this._segmentStartPosition;
},
set: function set(e) {
n.vec3.copy(this._segmentStartPosition, e), this._requestRender();
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(e.prototype, "segmentEndPosition", {
get: function get() {
return this._segmentEndPosition;
},
set: function set(e) {
n.vec3.copy(this._segmentEndPosition, e), this._requestRender();
},
enumerable: !0,
configurable: !0
}), e.prototype.setParameterValues = function (e) {
l.updateParameters(this._params, e) && this._requestRender();
}, e.prototype.initializeRenderContext = function (e) {
this._initContext = e;
var t = e.rctx;
this._quadVAO = a.createQuadVAO(t), this._laserLineProgram = e.programRep.getProgram(p.program), this._laserLinePipelineState = h.makePipelineState({
blending: h.simpleBlendingParams(1, 771),
colorWrite: h.defaultColorWriteParams
});
}, e.prototype.uninitializeRenderContext = function () {
this._quadVAO.dispose(), this._quadVAO = null, this._laserLineProgram = null, this._projInfo = null;
}, e.prototype.render = function (e) {
var t = e.rctx,
i = e.camera,
r = this._renderCoordsHelper,
o = this._laserLineProgram,
s = this._projInfo,
c = this._zScale;
if (t.bindProgram(o), t.setPipelineState(this._laserLinePipelineState), f.inverseProjectionInfo(i.projectionMatrix, i.fullWidth, i.fullHeight, s, c), o.setUniform4fv("projInfo", s), o.setUniform2fv("zScale", c), o.setUniform2f("nearFar", i.near, i.far), o.setUniform1f("maxPixelDistance", 2 * i.computeScreenPixelSizeAt(this._focusPosition)), this._focusPlaneActive) {
var a = this._focusPosition,
l = this._tempVec3,
p = this._tempVec4;
r.worldUpAtPosition(a, l), u(p, a, l, i.viewMatrix), o.setUniform4fv("focusPlane", p);
} else o.setUniform4fv("focusPlane", [0, 0, 0, 1e10]);
if (this._focusSphereActive) {
var h = this._tempVec4,
a = this._tempVec3;
n.vec3.copy(h, this._focusSpherePosition), n.vec3.transformMat4(h, h, i.viewMatrix), n.vec3.copy(a, this._focusPosition), n.vec3.transformMat4(a, a, i.viewMatrix), h[3] = n.vec3.distance(h, a), o.setUniform4fv("focusSphere", h);
} else o.setUniform4fv("focusSphere", [0, 0, 0, 1e10]);
if (this._segmentActive) {
var v = this._tempVec4,
_ = this._tempVec3,
g = this._tempUp,
d = this._tempDir,
P = this._tempNormal;
n.vec3.lerp(_, this._segmentStartPosition, this._segmentEndPosition, .5), r.worldUpAtPosition(_, g), n.vec3.subtract(d, this._segmentEndPosition, this._segmentStartPosition), n.vec3.normalize(d, d), n.vec3.cross(P, g, d), n.vec3.normalize(P, P), u(v, this._segmentStartPosition, P, i.viewMatrix), o.setUniform4fv("segmentPlane", v);
} else o.setUniform4fv("segmentPlane", [0, 0, 0, 1e10]);
var b = m;
n.vec3.copy(b, this._segmentStartPosition), r.setAltitude(0, b), n.vec3.transformMat4(b, b, i.viewMatrix), o.setUniform3fv("segmentStart", b);
var y = m;
n.vec3.copy(y, this._segmentEndPosition), r.setAltitude(0, y), n.vec3.transformMat4(y, y, i.viewMatrix), o.setUniform3fv("segmentEnd", y), o.setUniform1i("depthMap", 0), t.bindTexture(e.offscreenRenderingHelper.linearDepthTexture, 0);
var S = e.camera.pixelRatio;
return o.setUniform3fv("innerColor", this._params.innerColor), o.setUniform1f("innerWidth", this._params.innerWidth * S), o.setUniform3fv("glowColor", this._params.glowColor), o.setUniform1f("glowWidth", this._params.glowWidth * S), o.setUniform1f("globalAlpha", this._params.globalAlpha), t.bindVAO(this._quadVAO), t.drawArrays(5, 0, 4), !0;
}, e.prototype._requestRender = function () {
this._initContext && this._initContext.requestRender();
}, e;
}();
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/interactive/measurementTools/support/Label.js":
/*!*******************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/interactive/measurementTools/support/Label.js ***!
\*******************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dInteractiveMeasurementToolsSupportLabelJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../overlay/LineOverlayItem */
"./node_modules/arcgis-js-api/views/overlay/LineOverlayItem.js"), __webpack_require__(
/*! ../../../../overlay/TextOverlayItem */
"./node_modules/arcgis-js-api/views/overlay/TextOverlayItem.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (t, e, i, o) {
return function () {
function t(t) {
this._textItem = new o({
visible: !1
}), this._calloutItem = new i({
visible: !1,
width: 2
}), this._visible = !1, this._calloutVisible = !0, t && (this.fontSize = t);
}
return Object.defineProperty(t.prototype, "textItem", {
get: function get() {
return this._textItem;
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(t.prototype, "calloutItem", {
get: function get() {
return this._calloutItem;
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(t.prototype, "text", {
get: function get() {
return this._textItem.text;
},
set: function set(t) {
this._textItem.text = t;
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(t.prototype, "fontSize", {
get: function get() {
return this._textItem.fontSize;
},
set: function set(t) {
this._textItem.fontSize = t;
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(t.prototype, "visible", {
get: function get() {
return this._visible;
},
set: function set(t) {
this._visible = t, this._updateVisibility();
},
enumerable: !0,
configurable: !0
}), t.prototype.addToView = function (t) {
t.overlay.items.addMany([this._textItem, this._calloutItem]);
}, t.prototype.removeFromView = function (t) {
t.overlay && !t.overlay.destroyed && t.overlay.items.removeMany([this._textItem, this._calloutItem]);
}, t.prototype.updatePosition = function (t, e) {
if (e) {
var i = e[0] - t[0],
o = e[1] - t[1];
this._textItem.position = [e[0], e[1]], this._textItem.anchor = Math.abs(i) > Math.abs(o) ? i > 0 ? "left" : "right" : o > 0 ? "top" : "bottom", this._calloutItem.startPosition = [t[0], t[1]], this._calloutItem.endPosition = [e[0], e[1]], this._calloutVisible = !0;
} else this._textItem.position = [t[0], t[1]], this._textItem.anchor = "center", this._calloutVisible = !1;
}, t.prototype._updateVisibility = function () {
this._textItem.visible = this._visible, this._calloutItem.visible = this._visible && this._calloutVisible;
}, t;
}();
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"./node_modules/arcgis-js-api/views/3d/interactive/measurementTools/support/LabelSegment.js":
/*!**************************************************************************************************!*\
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/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dInteractiveMeasurementToolsSupportLabelSegmentJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../core/libs/gl-matrix-2/vec3 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec3.js"), __webpack_require__(
/*! ../../../../../core/libs/gl-matrix-2/vec3f64 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec3f64.js"), __webpack_require__(
/*! ./viewUtils */
"./node_modules/arcgis-js-api/views/3d/interactive/measurementTools/support/viewUtils.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, i, t, c, r) {
return function () {
function e() {
this.origin = c.vec3f64.create(), this.start = c.vec3f64.create(), this.end = c.vec3f64.create();
}
return e.prototype.update = function (e, i, c) {
if (t.vec3.copy(this.start, e), t.vec3.copy(this.end, i), c) switch (c) {
case "start":
t.vec3.copy(this.origin, this.start);
break;
case "center":
r.midpoint([e, i], this.origin);
break;
case "end":
t.vec3.copy(this.origin, this.end);
break;
default:
t.vec3.copy(this.origin, c);
} else r.midpoint([e, i], this.origin);
}, e;
}();
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
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},
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"./node_modules/arcgis-js-api/views/3d/interactive/measurementTools/support/PathSegmentInterpolator.js":
/*!*************************************************************************************************************!*\
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\*************************************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dInteractiveMeasurementToolsSupportPathSegmentInterpolatorJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../core/libs/gl-matrix-2/vec3 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec3.js"), __webpack_require__(
/*! ../../../../../core/libs/gl-matrix-2/vec3f64 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec3f64.js"), __webpack_require__(
/*! ../../../support/mathUtils */
"./node_modules/arcgis-js-api/views/3d/support/mathUtils.js"), __webpack_require__(
/*! ../../../support/projectionUtils */
"./node_modules/arcgis-js-api/views/3d/support/projectionUtils.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (t, e, i, o, r, n) {
var s;
return function (t) {
var e = function () {
function t(t, e) {
this._startPosition = o.vec3f64.create(), this._endPosition = o.vec3f64.create(), i.vec3.copy(this._startPosition, t), i.vec3.copy(this._endPosition, e);
}
return t.prototype.eval = function (t, e) {
i.vec3.lerp(e, this._startPosition, this._endPosition, t);
}, t;
}();
t.Linear = e;
var s = function () {
function t(t, e, i, r) {
this._startPosition = o.vec3f64.create(), this._endPosition = o.vec3f64.create(), n.vectorToVector(t, i, this._startPosition, n.SphericalECEFSpatialReference), n.vectorToVector(e, i, this._endPosition, n.SphericalECEFSpatialReference), this._destSR = r;
}
return t.prototype.eval = function (t, e) {
r.slerp(this._startPosition, this._endPosition, t, e), n.vectorToVector(e, n.SphericalECEFSpatialReference, e, this._destSR);
}, t;
}();
t.Spherical = s;
}(s || (s = {})), s;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
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},
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"./node_modules/arcgis-js-api/views/3d/interactive/measurementTools/support/UnitNormalizer.js":
/*!****************************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/interactive/measurementTools/support/UnitNormalizer.js ***!
\****************************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dInteractiveMeasurementToolsSupportUnitNormalizerJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../core/unitUtils */
"./node_modules/arcgis-js-api/core/unitUtils.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, t, r) {
return function () {
function e(e) {
void 0 === e && (e = null), this.spatialReference = e, this._updateNormalizationFactors;
}
return Object.defineProperty(e.prototype, "spatialReference", {
get: function get() {
return this._spatialReference;
},
set: function set(e) {
e !== this._spatialReference && (this._spatialReference = e, this._updateNormalizationFactors());
},
enumerable: !0,
configurable: !0
}), e.prototype.normalizeDistance = function (e) {
return e * this._metersPerDistanceUnit;
}, e.prototype.normalizeElevation = function (e) {
return e * this._metersPerElevationUnit;
}, e.prototype.normalizeArea = function (e) {
return e * this._squareMetersPerAreaUnit;
}, e.prototype._updateNormalizationFactors = function () {
this._metersPerDistanceUnit = r.getMetersPerUnitForSR(this._spatialReference, 1), this._metersPerElevationUnit = r.getMetersPerUnitForSR(this._spatialReference, 1), this._squareMetersPerAreaUnit = this._metersPerDistanceUnit * this._metersPerDistanceUnit;
}, e;
}();
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
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},
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"./node_modules/arcgis-js-api/views/3d/interactive/measurementTools/support/labelUtils.js":
/*!************************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/interactive/measurementTools/support/labelUtils.js ***!
\************************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dInteractiveMeasurementToolsSupportLabelUtilsJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../core/screenUtils */
"./node_modules/arcgis-js-api/core/screenUtils.js"), __webpack_require__(
/*! ../../../../../core/libs/gl-matrix-2/vec2 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec2.js"), __webpack_require__(
/*! ../../../../../core/libs/gl-matrix-2/vec3 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec3.js"), __webpack_require__(
/*! ../../../../../core/libs/gl-matrix-2/vec3f64 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec3f64.js"), __webpack_require__(
/*! ./viewUtils */
"./node_modules/arcgis-js-api/views/3d/interactive/measurementTools/support/viewUtils.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, r, t, n, o, c, a) {
function i(e) {
switch (e) {
case "top":
return "bottom";
case "right":
return "left";
case "bottom":
return "top";
case "left":
return "right";
}
}
function s(e, r, t) {
return e.projectPoint(r, S), !(S[2] < 0 || S[2] > 1) && (e.renderToScreen(S, t), !0);
}
function l(e, r, t) {
var n = s(t, r, h);
return n && e.updatePosition(h, null), n;
}
function u(e, r, t, o, c, i) {
if (!r) return !1;
a.screenSpaceTangent(r.start, r.end, b, e), n.vec2.set(f, -b[1], b[0]);
var s = !1;
switch (o) {
case "top":
s = f[1] < 0;
break;
case "bottom":
s = f[1] > 0;
break;
case "left":
s = f[0] > 0;
break;
case "right":
s = f[0] < 0;
}
if (s && n.vec2.negate(f, f), 0 === n.vec2.length(f)) switch (o) {
case "top":
f[1] = 1;
break;
case "bottom":
f[1] = -1;
break;
case "left":
f[0] = -1;
break;
case "right":
f[0] = 1;
}
return e.projectPoint(r.origin, S), !(S[2] < 0 || S[2] > 1) && (e.renderToScreen(S, c), n.vec2.scale(f, f, t * e.pixelRatio), n.vec2.add(f, f, S), e.renderToScreen(f, i), !0);
}
function d(e, r, t, n, o) {
var c = u(o, r, t, n, h, y);
return c && e.updatePosition(h, y), c;
}
function p(e, r, t, o, c, i) {
return !(!r || !t) && (a.screenSpaceTangent(r.end, r.start, b, e), a.screenSpaceTangent(t.start, t.end, m, e), n.vec2.add(f, b, m), n.vec2.negate(f, f), n.vec2.normalize(f, f), e.projectPoint(r.end, S), !(S[2] < 0 || S[2] > 1) && (e.renderToScreen(S, c), n.vec2.scale(f, f, o * e.pixelRatio), n.vec2.add(f, f, S), e.renderToScreen(f, i), !0));
}
function v(e, r, t, c, a, i) {
return e.projectPoint(r, S), o.vec3.add(T, r, t), e.projectPoint(T, g), !(S[2] < 0 || S[2] > 1 || g[2] < 0 || g[2] > 1) && (n.vec2.subtract(f, g, S), n.vec2.normalize(f, f), e.renderToScreen(S, a), n.vec2.scale(f, f, c * e.pixelRatio), n.vec2.add(f, f, S), e.renderToScreen(f, i), !0);
}
function P(e, r, t, n, o) {
var c = p(o, r, t, n, h, y);
return c && e.updatePosition(h, y), c;
}
Object.defineProperty(r, "__esModule", {
value: !0
}), r.mirrorPosition = i, r.computeLabelPositionFromPoint = s, r.positionLabelOnPoint = l, r.computeLabelPositionFromSegment = u, r.positionLabelOnSegment = d, r.computeLabelPositionFromCorner = p, r.computeLabelPositionFromPlane = v, r.positionLabelOnCorner = P;
var b = t.createRenderScreenPointArray(),
m = t.createRenderScreenPointArray(),
f = t.createRenderScreenPointArray(),
S = t.createRenderScreenPointArray3(),
g = t.createRenderScreenPointArray3(),
T = c.vec3f64.create(),
h = t.createScreenPointArray(),
y = t.createScreenPointArray();
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/interactive/measurementTools/support/viewUtils.js":
/*!***********************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/interactive/measurementTools/support/viewUtils.js ***!
\***********************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dInteractiveMeasurementToolsSupportViewUtilsJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../core/lang */
"./node_modules/arcgis-js-api/core/lang.js"), __webpack_require__(
/*! ../../../../../core/screenUtils */
"./node_modules/arcgis-js-api/core/screenUtils.js"), __webpack_require__(
/*! ../../../../../core/libs/gl-matrix-2/mat4 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/mat4.js"), __webpack_require__(
/*! ../../../../../core/libs/gl-matrix-2/vec2 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec2.js"), __webpack_require__(
/*! ../../../../../core/libs/gl-matrix-2/vec3 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec3.js"), __webpack_require__(
/*! ../../../../../core/libs/gl-matrix-2/vec3f64 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec3f64.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, r, t, n, c, a, i, o) {
function s(e, r) {
var n = t.mixin({}, e),
c = t.clone(r);
return t.mixin(n, c), n;
}
function l(e, r, t, n) {
for (; e.length < r;) e.push(t());
if (n) for (; e.length > r;) {
var c = e.pop();
n(c);
} else e.length = r;
}
function v(e, r, t) {
c.mat4.identity(t), c.mat4.translate(t, t, r), i.vec3.set(m, e, e, e), c.mat4.scale(t, t, m);
}
function f(e, r) {
if (i.vec3.set(r, 0, 0, 0), e.length > 0) {
for (var t = 0; t < e.length; ++t) i.vec3.add(r, r, e[t]);
i.vec3.scale(r, r, 1 / e.length);
}
}
function d(e, r, t, n) {
n.projectPoint(e, S), n.projectPoint(r, A), a.vec2.subtract(t, h, x), a.vec2.normalize(t, t);
}
function u(e, r, t) {
var c = t._stage.getCamera();
t.renderCoordsHelper.toRenderCoords(e, P), c.projectPoint(P, y), n.renderArrayToScreen(t, y, r);
}
function p(e, r, t) {
return u(e, j, t), u(r, T, t), a.vec2.distance(j, T);
}
function g(e, r, t) {
return u(e, b, t), a.vec2.distance(b, r);
}
Object.defineProperty(r, "__esModule", {
value: !0
});
var m = o.vec3f64.create();
r.copyParameter = s, r.resizeArray = l, r.scaleTranslateMatrix = v, r.midpoint = f, r.screenSpaceTangent = d, r.projectPoint = u, r.pointToPointScreenDistance = p, r.pointToScreenPositionDistance = g;
var P = o.vec3f64.create(),
y = n.createRenderScreenPointArray3(),
S = n.createRenderScreenPointArray3(),
x = S,
A = n.createRenderScreenPointArray3(),
h = A,
b = n.createScreenPointArray(),
j = n.createScreenPointArray(),
T = n.createScreenPointArray();
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/layers/graphics/graphicUtils.js":
/*!*****************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/layers/graphics/graphicUtils.js ***!
\*****************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dLayersGraphicsGraphicUtilsJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../core/mathUtils */
"./node_modules/arcgis-js-api/core/mathUtils.js"), __webpack_require__(
/*! ../../../../core/maybe */
"./node_modules/arcgis-js-api/core/maybe.js"), __webpack_require__(
/*! ../../../../core/libs/gl-matrix-2/mat4 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/mat4.js"), __webpack_require__(
/*! ../../../../core/libs/gl-matrix-2/mat4f64 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/mat4f64.js"), __webpack_require__(
/*! ../../../../core/libs/gl-matrix-2/vec2f64 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec2f64.js"), __webpack_require__(
/*! ../../../../core/libs/gl-matrix-2/vec3f64 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec3f64.js"), __webpack_require__(
/*! ../../../../core/libs/gl-matrix-2/vec4 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec4.js"), __webpack_require__(
/*! ../../../../core/libs/gl-matrix-2/vec4f64 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec4f64.js"), __webpack_require__(
/*! ../../../../geometry/support/aaBoundingBox */
"./node_modules/arcgis-js-api/geometry/support/aaBoundingBox.js"), __webpack_require__(
/*! ../../../../geometry/support/aaBoundingRect */
"./node_modules/arcgis-js-api/geometry/support/aaBoundingRect.js"), __webpack_require__(
/*! ../../../../geometry/support/centroid */
"./node_modules/arcgis-js-api/geometry/support/centroid.js"), __webpack_require__(
/*! ../../../../geometry/support/coordsUtils */
"./node_modules/arcgis-js-api/geometry/support/coordsUtils.js"), __webpack_require__(
/*! ../../../../layers/graphics/dehydratedFeatures */
"./node_modules/arcgis-js-api/layers/graphics/dehydratedFeatures.js"), __webpack_require__(
/*! ../../support/projectionUtils */
"./node_modules/arcgis-js-api/views/3d/support/projectionUtils.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, t, r, n, i, o, a, l, u, s, m, c, f, v, d, h) {
function p(e, t) {
if ("point" === e.type) return b(e, t, !1);
if (d.isHydratedGeometry(e)) switch (e.type) {
case "extent":
return b(e.center, t, !1);
case "polygon":
return b(e.centroid, t, !1);
case "polyline":
return b(g(e), t, !0);
case "mesh":
return b(e.extent.center, t, !1);
} else switch (e.type) {
case "extent":
return b(y(e), t, !0);
case "polygon":
return b(x(e), t, !0);
case "polyline":
return b(g(e), t, !0);
}
}
function g(e) {
var t = e.paths[0];
if (!t || 0 === t.length) return null;
var r = v.getPointOnPath(t, v.getPathLength(t) / 2);
return d.makeDehydratedPoint(r[0], r[1], r[2], e.spatialReference);
}
function y(e) {
var t = r.isFinite(e.zmin);
return d.makeDehydratedPoint(.5 * (e.xmax + e.xmin), .5 * (e.ymax + e.ymin), t ? .5 * (e.zmax + e.zmin) : void 0, e.spatialReference);
}
function x(e) {
var t = e.rings[0];
if (!t || 0 === t.length) return null;
var r = f.ringsCentroid(e.rings, e.hasZ);
return d.makeDehydratedPoint(r[0], r[1], r[2], e.spatialReference);
}
function b(e, t, r) {
var n = r ? e : d.clonePoint(e);
return t && e ? h.pointToPoint(e, n, t) ? n : null : n;
}
function P(e, t, r) {
if (e) {
t || (t = c.create());
var n = e,
i = .5 * n.width * (r - 1),
o = .5 * n.height * (r - 1);
return n.width < 1e-7 * n.height ? i += o / 20 : n.height < 1e-7 * n.width && (o += i / 20), u.vec4.set(t, n.xmin - i, n.ymin - o, n.xmax + i, n.ymax + o), t;
}
return null;
}
function S(e, t) {
for (var r = 0; r < e.geometries.length; ++r) {
var n = e.geometries[r].data,
i = n.vertexAttributes.auxpos1;
i && i.data[3] !== t && (i.data[3] = t, e.geometryVertexAttrsUpdated(r));
}
}
function V(e, t) {
var r = s.vec4f64.clone(s.vec4f64.ONES);
return n.isSome(e) && (r[0] = e[0], r[1] = e[1], r[2] = e[2]), n.isSome(t) ? r[3] = t : n.isSome(e) && e.length > 3 && (r[3] = e[3]), r;
}
function A(e, t, r, i, o, a) {
void 0 === a && (a = [0, 0, 0, 0]);
for (var l = 0; l < 3; ++l) n.isSome(e) && null != e[l] ? a[l] = e[l] : n.isSome(r) && null != r[l] ? a[l] = r[l] : a[l] = o[l];
return n.isSome(t) ? a[3] = t : n.isSome(i) ? a[3] = i : a[3] = o[3], a;
}
function R(e, t, r, n) {
void 0 === e && (e = l.vec3f64.ONES), void 0 === n && (n = 1);
var i = new Array(3);
if (null == t || null == r) i[0] = 1, i[1] = 1, i[2] = 1;else {
for (var o = void 0, a = 0, u = 2; u >= 0; u--) {
var s = e[u],
m = void 0,
c = null != s,
f = 0 === u && !o && !c,
v = r[u];
"symbolValue" === s || f ? m = 0 !== v ? t[u] / v : 1 : c && "proportional" !== s && isFinite(s) && (m = 0 !== v ? s / v : 1), null != m && (i[u] = m, o = m, a = Math.max(a, Math.abs(m)));
}
for (var u = 2; u >= 0; u--) null == i[u] ? i[u] = o : 0 === i[u] && (i[u] = .001 * a);
}
for (var u = 2; u >= 0; u--) i[u] /= n;
return l.vec3f64.fromArray(i);
}
function w(e, t) {
var r = t.isPrimitive,
n = t.width,
i = t.depth,
o = t.height,
a = r ? 10 : 1;
if (null == n && null == o && null == i) return [a * e[0], a * e[1], a * e[2]];
for (var u, s = l.vec3f64.fromValues(n, i, o), m = 0; m < 3; m++) {
var c = s[m];
if (null != c) {
u = c / e[m];
break;
}
}
for (var m = 0; m < 3; m++) null == s[m] && (s[m] = e[m] * u);
return s;
}
function z(e) {
return null != e.isPrimitive;
}
function D(e) {
return z(e) && (e = [e.width, e.depth, e.height]), M(e) ? null : "Symbol sizes may not be negative values";
}
function M(e) {
if (Array.isArray(e)) {
for (var t = 0, r = e; t < r.length; t++) {
if (!M(r[t])) return !1;
}
return !0;
}
return null == e || e >= 0;
}
function O(e, t, r, n) {
void 0 === n && (n = o.mat4f64.create());
var a = e || 0,
l = t || 0,
u = r || 0;
return 0 !== a && i.mat4.rotateZ(n, n, -a / 180 * Math.PI), 0 !== l && i.mat4.rotateX(n, n, l / 180 * Math.PI), 0 !== u && i.mat4.rotateY(n, n, u / 180 * Math.PI), n;
}
function B(e, t) {
return null != t.minDemResolution ? t.minDemResolution : m.isPoint(e) ? t.minDemResolutionForPoints : .01 * m.maximumDimension(e);
}
Object.defineProperty(t, "__esModule", {
value: !0
}), t.computeCentroid = p, t.enlargeExtent = P, t.updateVertexAttributeAuxpos1w = S, t.mixinColorAndOpacity = V, t.overrideColor = A, t.computeObjectScale = R, t.computeSizeWithResourceSize = w, t.validateSymbolLayerSize = D, t.isValidSize = M, t.computeObjectRotation = O, t.demResolutionForBoundingBox = B, t.namedAnchorToHUDMaterialAnchorPos = {
"bottom-left": a.vec2f64.fromValues(0, 0),
bottom: a.vec2f64.fromValues(.5, 0),
"bottom-right": a.vec2f64.fromValues(1, 0),
left: a.vec2f64.fromValues(0, .5),
center: a.vec2f64.fromValues(.5, .5),
right: a.vec2f64.fromValues(1, .5),
"top-left": a.vec2f64.fromValues(0, 1),
top: a.vec2f64.fromValues(.5, 1),
"top-right": a.vec2f64.fromValues(1, 1)
};
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
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/*!*******************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/support/imageUtils.js ***!
\*******************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dSupportImageUtilsJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../core/tsSupport/assignHelper */
"./node_modules/arcgis-js-api/core/tsSupport/assignHelper.js"), __webpack_require__(
/*! ../../../request */
"./node_modules/arcgis-js-api/request.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, t, r, n) {
function o(e) {
for (var t = atob(e.split(",")[1]), r = e.split(",")[0].split(":")[1].split(";")[0], n = new ArrayBuffer(t.length), o = new Uint8Array(n), i = 0; i < t.length; i++) o[i] = t.charCodeAt(i);
return new Blob([n], {
type: r
});
}
function i(e, t) {
return n(e, r({
responseType: "image"
}, t)).then(function (e) {
return e.data;
});
}
Object.defineProperty(t, "__esModule", {
value: !0
}), t.dataURItoBlob = o, t.requestImage = i;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
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"./node_modules/arcgis-js-api/views/3d/webgl-engine/collections/Component/Material/shader/DecodeSymbolColor.glsl.js":
/*!**************************************************************************************************************************!*\
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\**************************************************************************************************************************/
/*! no static exports found */
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function node_modulesArcgisJsApiViews3dWebglEngineCollectionsComponentMaterialShaderDecodeSymbolColorGlslJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../../../core/tsSupport/makeTemplateObjectHelper */
"./node_modules/arcgis-js-api/core/tsSupport/makeTemplateObjectHelper.js"), __webpack_require__(
/*! ../../../../core/shaderModules/interfaces */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/interfaces.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (o, l, e, n) {
function a(o) {
o.vertex.code.add(n.glsl(s || (s = e(["\n vec4 decodeSymbolColor(vec4 symbolColor, out int colorMixMode) {\n float symbolAlpha = 0.0;\n\n const float maxTint = 85.0;\n const float maxReplace = 170.0;\n const float scaleAlpha = 3.0;\n\n if (symbolColor.a > maxReplace) {\n colorMixMode = ", ";\n symbolAlpha = scaleAlpha * (symbolColor.a - maxReplace);\n } else if (symbolColor.a > maxTint) {\n colorMixMode = ", ";\n symbolAlpha = scaleAlpha * (symbolColor.a - maxTint);\n } else if (symbolColor.a > 0.0) {\n colorMixMode = ", ";\n symbolAlpha = scaleAlpha * symbolColor.a;\n } else {\n colorMixMode = ", ";\n symbolAlpha = 0.0;\n }\n\n return vec4(symbolColor.r, symbolColor.g, symbolColor.b, symbolAlpha);\n }\n "], ["\n vec4 decodeSymbolColor(vec4 symbolColor, out int colorMixMode) {\n float symbolAlpha = 0.0;\n\n const float maxTint = 85.0;\n const float maxReplace = 170.0;\n const float scaleAlpha = 3.0;\n\n if (symbolColor.a > maxReplace) {\n colorMixMode = ", ";\n symbolAlpha = scaleAlpha * (symbolColor.a - maxReplace);\n } else if (symbolColor.a > maxTint) {\n colorMixMode = ", ";\n symbolAlpha = scaleAlpha * (symbolColor.a - maxTint);\n } else if (symbolColor.a > 0.0) {\n colorMixMode = ", ";\n symbolAlpha = scaleAlpha * symbolColor.a;\n } else {\n colorMixMode = ", ";\n symbolAlpha = 0.0;\n }\n\n return vec4(symbolColor.r, symbolColor.g, symbolColor.b, symbolAlpha);\n }\n "])), n.glsl["int"](1), n.glsl["int"](3), n.glsl["int"](4), n.glsl["int"](1)));
}
Object.defineProperty(l, "__esModule", {
value: !0
}), l.DecodeSymbolColor = a;
var s;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/DiscardOrAdjustAlpha.glsl.js":
/*!**********************************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/DiscardOrAdjustAlpha.glsl.js ***!
\**********************************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineCoreShaderLibraryDiscardOrAdjustAlphaGlslJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../core/tsSupport/makeTemplateObjectHelper */
"./node_modules/arcgis-js-api/core/tsSupport/makeTemplateObjectHelper.js"), __webpack_require__(
/*! ../shaderModules/interfaces */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/interfaces.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, d, r, a) {
function o(e, d) {
var o = e.fragment;
switch (d.alphaDiscardMode) {
case 0:
o.code.add(a.glsl(c || (c = r(["\n void discardOrAdjustAlpha(inout vec4 color) {}\n "], ["\n void discardOrAdjustAlpha(inout vec4 color) {}\n "]))));
break;
case 1:
o.code.add(a.glsl(l || (l = r(["\n void discardOrAdjustAlpha(inout vec4 color) {\n color.a = 1.0;\n }\n "], ["\n void discardOrAdjustAlpha(inout vec4 color) {\n color.a = 1.0;\n }\n "]))));
break;
case 2:
o.uniforms.add("textureAlphaCutoff", "float"), o.code.add(a.glsl(t || (t = r(["\n #define discardOrAdjustAlpha(color) { if (color.a < textureAlphaCutoff) { discard; } else { color.a = 1.0; } }\n "], ["\n #define discardOrAdjustAlpha(color) { if (color.a < textureAlphaCutoff) { discard; } else { color.a = 1.0; } }\n "]))));
break;
case 3:
e.fragment.uniforms.add("textureAlphaCutoff", "float"), e.fragment.code.add(a.glsl(s || (s = r(["\n #define discardOrAdjustAlpha(color) { if (color.a < textureAlphaCutoff) { discard; } }\n "], ["\n #define discardOrAdjustAlpha(color) { if (color.a < textureAlphaCutoff) { discard; } }\n "]))));
}
}
Object.defineProperty(d, "__esModule", {
value: !0
}), d.DiscardOrAdjustAlpha = o, d.TEXTURE_ALPHA_CUTOFF_DEFAULT = .1;
var c, l, t, s;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/ForwardLinearDepth.glsl.js":
/*!********************************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/ForwardLinearDepth.glsl.js ***!
\********************************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineCoreShaderLibraryForwardLinearDepthGlslJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../core/tsSupport/makeTemplateObjectHelper */
"./node_modules/arcgis-js-api/core/tsSupport/makeTemplateObjectHelper.js"), __webpack_require__(
/*! ../shaderModules/interfaces */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/interfaces.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, r, a, n) {
function i(e, r) {
0 === r.output && r.receiveShadows ? (e.varyings.add("linearDepth", "float"), e.vertex.code.add(n.glsl(o || (o = a(["\n void forwardLinearDepth() { linearDepth = gl_Position.w; }\n "], ["\n void forwardLinearDepth() { linearDepth = gl_Position.w; }\n "]))))) : 1 === r.output || 3 === r.output ? (e.varyings.add("linearDepth", "float"), e.vertex.uniforms.add("uCameraNearFar", "vec2"), e.vertex.code.add(n.glsl(t || (t = a(["\n void forwardLinearDepth() {\n linearDepth = (-position_view().z - uCameraNearFar[0]) / (uCameraNearFar[1] - uCameraNearFar[0]);\n }\n "], ["\n void forwardLinearDepth() {\n linearDepth = (-position_view().z - uCameraNearFar[0]) / (uCameraNearFar[1] - uCameraNearFar[0]);\n }\n "]))))) : e.vertex.code.add(n.glsl(d || (d = a(["\n void forwardLinearDepth() {}\n "], ["\n void forwardLinearDepth() {}\n "]))));
}
Object.defineProperty(r, "__esModule", {
value: !0
}), r.ForwardLinearDepth = i;
var o, t, d;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
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"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/Offset.glsl.js":
/*!********************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/Offset.glsl.js ***!
\********************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineCoreShaderLibraryOffsetGlslJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../core/tsSupport/makeTemplateObjectHelper */
"./node_modules/arcgis-js-api/core/tsSupport/makeTemplateObjectHelper.js"), __webpack_require__(
/*! ../shaderModules/interfaces */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/interfaces.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (o, e, c, n) {
function r(o) {
o.vertex.code.add(n.glsl(l || (l = c(["\n vec4 offsetBackfacingClipPosition(vec4 posClip, vec3 posWorld, vec3 normalWorld, vec3 camPosWorld) {\n vec3 camToVert = posWorld - camPosWorld;\n\n bool isBackface = dot(camToVert, normalWorld) > 0.0;\n if (isBackface) {\n posClip.z += 0.0000003 * posClip.w;\n }\n return posClip;\n }\n "], ["\n vec4 offsetBackfacingClipPosition(vec4 posClip, vec3 posWorld, vec3 normalWorld, vec3 camPosWorld) {\n vec3 camToVert = posWorld - camPosWorld;\n\n bool isBackface = dot(camToVert, normalWorld) > 0.0;\n if (isBackface) {\n posClip.z += 0.0000003 * posClip.w;\n }\n return posClip;\n }\n "]))));
}
Object.defineProperty(e, "__esModule", {
value: !0
}), e.Offset = r;
var l;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/Slice.glsl.js":
/*!*******************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/Slice.glsl.js ***!
\*******************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineCoreShaderLibrarySliceGlslJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../core/tsSupport/makeTemplateObjectHelper */
"./node_modules/arcgis-js-api/core/tsSupport/makeTemplateObjectHelper.js"), __webpack_require__(
/*! ../../../../../core/libs/gl-matrix-2/vec3 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec3.js"), __webpack_require__(
/*! ../../../../../core/libs/gl-matrix-2/vec3f64 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec3f64.js"), __webpack_require__(
/*! ../shaderModules/interfaces */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/interfaces.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (s, e, n, i, c, o) {
function a(s, e) {
e.slicePlaneEnabled ? (s.extensions.add("GL_OES_standard_derivatives"), s.fragment.uniforms.add("slicePlaneOrigin", "vec3"), s.fragment.uniforms.add("slicePlaneBasis1", "vec3"), s.fragment.uniforms.add("slicePlaneBasis2", "vec3"), s.fragment.code.add(o.glsl(l || (l = n(["\n struct SliceFactors {\n float front;\n float side0;\n float side1;\n float side2;\n float side3;\n };\n\n SliceFactors calculateSliceFactors(vec3 pos) {\n vec3 rel = pos - slicePlaneOrigin;\n\n vec3 slicePlaneNormal = -cross(slicePlaneBasis1, slicePlaneBasis2);\n float slicePlaneW = -dot(slicePlaneNormal, slicePlaneOrigin);\n\n float basis1Len2 = dot(slicePlaneBasis1, slicePlaneBasis1);\n float basis2Len2 = dot(slicePlaneBasis2, slicePlaneBasis2);\n\n float basis1Dot = dot(slicePlaneBasis1, rel);\n float basis2Dot = dot(slicePlaneBasis2, rel);\n\n return SliceFactors(\n dot(slicePlaneNormal, pos) + slicePlaneW,\n -basis1Dot - basis1Len2,\n basis1Dot - basis1Len2,\n -basis2Dot - basis2Len2,\n basis2Dot - basis2Len2\n );\n }\n\n bool sliceByFactors(SliceFactors factors) {\n return factors.front < 0.0\n && factors.side0 < 0.0\n && factors.side1 < 0.0\n && factors.side2 < 0.0\n && factors.side3 < 0.0;\n }\n\n bool sliceByPlane(vec3 pos) {\n return sliceByFactors(calculateSliceFactors(pos));\n }\n\n vec4 applySliceHighlight(vec4 color, vec3 pos) {\n SliceFactors factors = calculateSliceFactors(pos);\n\n if (sliceByFactors(factors)) {\n return color;\n }\n\n const float HIGHLIGHT_WIDTH = 1.0;\n const vec4 HIGHLIGHT_COLOR = vec4(0.0, 0.0, 0.0, 0.3);\n\n factors.front /= (2.0 * HIGHLIGHT_WIDTH) * fwidth(factors.front);\n factors.side0 /= (2.0 * HIGHLIGHT_WIDTH) * fwidth(factors.side0);\n factors.side1 /= (2.0 * HIGHLIGHT_WIDTH) * fwidth(factors.side1);\n factors.side2 /= (2.0 * HIGHLIGHT_WIDTH) * fwidth(factors.side2);\n factors.side3 /= (2.0 * HIGHLIGHT_WIDTH) * fwidth(factors.side3);\n\n float highlightFactor = (1.0 - step(0.5, factors.front))\n * (1.0 - step(0.5, factors.side0))\n * (1.0 - step(0.5, factors.side1))\n * (1.0 - step(0.5, factors.side2))\n * (1.0 - step(0.5, factors.side3));\n\n return mix(color, vec4(HIGHLIGHT_COLOR.rgb, color.a), highlightFactor * HIGHLIGHT_COLOR.a);\n }\n #define rejectBySlice(_pos_) sliceByPlane(_pos_)\n #define discardBySlice(_pos_) { if (sliceByPlane(_pos_)) discard; }\n "], ["\n struct SliceFactors {\n float front;\n float side0;\n float side1;\n float side2;\n float side3;\n };\n\n SliceFactors calculateSliceFactors(vec3 pos) {\n vec3 rel = pos - slicePlaneOrigin;\n\n vec3 slicePlaneNormal = -cross(slicePlaneBasis1, slicePlaneBasis2);\n float slicePlaneW = -dot(slicePlaneNormal, slicePlaneOrigin);\n\n float basis1Len2 = dot(slicePlaneBasis1, slicePlaneBasis1);\n float basis2Len2 = dot(slicePlaneBasis2, slicePlaneBasis2);\n\n float basis1Dot = dot(slicePlaneBasis1, rel);\n float basis2Dot = dot(slicePlaneBasis2, rel);\n\n return SliceFactors(\n dot(slicePlaneNormal, pos) + slicePlaneW,\n -basis1Dot - basis1Len2,\n basis1Dot - basis1Len2,\n -basis2Dot - basis2Len2,\n basis2Dot - basis2Len2\n );\n }\n\n bool sliceByFactors(SliceFactors factors) {\n return factors.front < 0.0\n && factors.side0 < 0.0\n && factors.side1 < 0.0\n && factors.side2 < 0.0\n && factors.side3 < 0.0;\n }\n\n bool sliceByPlane(vec3 pos) {\n return sliceByFactors(calculateSliceFactors(pos));\n }\n\n vec4 applySliceHighlight(vec4 color, vec3 pos) {\n SliceFactors factors = calculateSliceFactors(pos);\n\n if (sliceByFactors(factors)) {\n return color;\n }\n\n const float HIGHLIGHT_WIDTH = 1.0;\n const vec4 HIGHLIGHT_COLOR = vec4(0.0, 0.0, 0.0, 0.3);\n\n factors.front /= (2.0 * HIGHLIGHT_WIDTH) * fwidth(factors.front);\n factors.side0 /= (2.0 * HIGHLIGHT_WIDTH) * fwidth(factors.side0);\n factors.side1 /= (2.0 * HIGHLIGHT_WIDTH) * fwidth(factors.side1);\n factors.side2 /= (2.0 * HIGHLIGHT_WIDTH) * fwidth(factors.side2);\n factors.side3 /= (2.0 * HIGHLIGHT_WIDTH) * fwidth(factors.side3);\n\n float highlightFactor = (1.0 - step(0.5, factors.front))\n * (1.0 - step(0.5, factors.side0))\n * (1.0 - step(0.5, factors.side1))\n * (1.0 - step(0.5, factors.side2))\n * (1.0 - step(0.5, factors.side3));\n\n return mix(color, vec4(HIGHLIGHT_COLOR.rgb, color.a), highlightFactor * HIGHLIGHT_COLOR.a);\n }\n #define rejectBySlice(_pos_) sliceByPlane(_pos_)\n #define discardBySlice(_pos_) { if (sliceByPlane(_pos_)) discard; }\n "])))), e.sliceHighlightDisabled ? s.fragment.code.add(o.glsl(t || (t = n(["\n #define highlightSlice(_color_, _pos_) (_color_)\n "], ["\n #define highlightSlice(_color_, _pos_) (_color_)\n "])))) : s.fragment.code.add(o.glsl(r || (r = n(["\n #define highlightSlice(_color_, _pos_) applySliceHighlight(_color_, _pos_)\n "], ["\n #define highlightSlice(_color_, _pos_) applySliceHighlight(_color_, _pos_)\n "]))))) : s.fragment.code.add(o.glsl(f || (f = n(["\n #define rejectBySlice(_pos_) false\n #define discardBySlice(_pos_) {}\n #define highlightSlice(_color_, _pos_) (_color_)\n "], ["\n #define rejectBySlice(_pos_) false\n #define discardBySlice(_pos_) {}\n #define highlightSlice(_color_, _pos_) (_color_)\n "]))));
}
Object.defineProperty(e, "__esModule", {
value: !0
}), e.Slice = a, function (s) {
function e(e, n, i) {
s.bindUniforms(e, n, i.slicePlane, i.origin);
}
function n(s, e, n, c) {
e.slicePlaneEnabled && (c ? (i.vec3.subtract(d, n.origin, c), s.setUniform3fv("slicePlaneOrigin", d)) : s.setUniform3fv("slicePlaneOrigin", n.origin), s.setUniform3fv("slicePlaneBasis1", n.basis1), s.setUniform3fv("slicePlaneBasis2", n.basis2));
}
s.bindUniformsWithOrigin = e, s.bindUniforms = n;
}(a = e.Slice || (e.Slice = {}));
var l,
t,
r,
f,
d = c.vec3f64.create();
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
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"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/Transform.glsl.js":
/*!***********************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/Transform.glsl.js ***!
\***********************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineCoreShaderLibraryTransformGlslJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../core/tsSupport/makeTemplateObjectHelper */
"./node_modules/arcgis-js-api/core/tsSupport/makeTemplateObjectHelper.js"), __webpack_require__(
/*! ../../../../../core/libs/gl-matrix-2/mat4 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/mat4.js"), __webpack_require__(
/*! ../../../../../core/libs/gl-matrix-2/mat4f32 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/mat4f32.js"), __webpack_require__(
/*! ../shaderModules/interfaces */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/interfaces.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, r, n, t, o, a) {
function i(e, r) {
r.linearDepth ? e.vertex.code.add(a.glsl(s || (s = n(["\n vec4 transformPositionWithDepth(mat4 proj, mat4 view, vec3 pos, vec2 nearFar, out float depth) {\n vec4 eye = view * vec4(pos, 1.0);\n depth = (-eye.z - nearFar[0]) / (nearFar[1] - nearFar[0]) ;\n return proj * eye;\n }\n "], ["\n vec4 transformPositionWithDepth(mat4 proj, mat4 view, vec3 pos, vec2 nearFar, out float depth) {\n vec4 eye = view * vec4(pos, 1.0);\n depth = (-eye.z - nearFar[0]) / (nearFar[1] - nearFar[0]) ;\n return proj * eye;\n }\n "])))) : e.vertex.code.add(a.glsl(p || (p = n(["\n vec4 transformPosition(mat4 proj, mat4 view, vec3 pos) {\n // Make sure the order of operations is the same as in transformPositionWithDepth.\n return proj * (view * vec4(pos, 1.0));\n }\n "], ["\n vec4 transformPosition(mat4 proj, mat4 view, vec3 pos) {\n // Make sure the order of operations is the same as in transformPositionWithDepth.\n return proj * (view * vec4(pos, 1.0));\n }\n "]))));
}
Object.defineProperty(r, "__esModule", {
value: !0
}), r.Transform = i, function (e) {
function r(e, r) {
t.mat4.translate(v, r.view, r.origin), e.setUniform3fv("localOrigin", r.origin), e.setUniformMatrix4fv("view", v);
}
e.bindUniforms = r;
}(i = r.Transform || (r.Transform = {}));
var s,
p,
v = o.mat4f32.create();
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/attributes/NormalAttribute.glsl.js":
/*!****************************************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/attributes/NormalAttribute.glsl.js ***!
\****************************************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineCoreShaderLibraryAttributesNormalAttributeGlslJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../../core/tsSupport/makeTemplateObjectHelper */
"./node_modules/arcgis-js-api/core/tsSupport/makeTemplateObjectHelper.js"), __webpack_require__(
/*! ../util/DecodeNormal.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/util/DecodeNormal.glsl.js"), __webpack_require__(
/*! ../../shaderModules/interfaces */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/interfaces.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, r, n, o, l) {
function a(e, r) {
0 === r.normalType && (e.attributes.add("normal", "vec3"), e.vertex.code.add(l.glsl(d || (d = n(["\n vec3 normalModel() {\n return normal;\n }\n "], ["\n vec3 normalModel() {\n return normal;\n }\n "]))))), 1 === r.normalType && (e.include(o.DecodeNormal), e.attributes.add("normalCompressed", "vec2"), e.vertex.code.add(l.glsl(t || (t = n(["\n vec3 normalModel() {\n return decodeNormal(normalCompressed);\n }\n "], ["\n vec3 normalModel() {\n return decodeNormal(normalCompressed);\n }\n "])))));
}
Object.defineProperty(r, "__esModule", {
value: !0
}), r.NormalAttribute = a;
var d, t;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/attributes/PositionAttribute.glsl.js":
/*!******************************************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/attributes/PositionAttribute.glsl.js ***!
\******************************************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineCoreShaderLibraryAttributesPositionAttributeGlslJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../../core/tsSupport/makeTemplateObjectHelper */
"./node_modules/arcgis-js-api/core/tsSupport/makeTemplateObjectHelper.js"), __webpack_require__(
/*! ../../shaderModules/interfaces */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/interfaces.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, t, o, i) {
function n(e) {
e.attributes.add("position", "vec3"), e.vertex.code.add(i.glsl(r || (r = o(["\n vec3 positionModel() { return position; }\n "], ["\n vec3 positionModel() { return position; }\n "]))));
}
Object.defineProperty(t, "__esModule", {
value: !0
}), t.PositionAttribute = n;
var r;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/attributes/RibbonVertexPosition.glsl.js":
/*!*********************************************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/attributes/RibbonVertexPosition.glsl.js ***!
\*********************************************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineCoreShaderLibraryAttributesRibbonVertexPositionGlslJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../../core/tsSupport/makeTemplateObjectHelper */
"./node_modules/arcgis-js-api/core/tsSupport/makeTemplateObjectHelper.js"), __webpack_require__(
/*! ../../shaderModules/interfaces */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/interfaces.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, t, i, n) {
function o(e, t) {
e.vertex.uniforms.add("symbolLineWidth", "float"), t.vvSize ? (e.attributes.add("sizeFeatureAttribute", "float"), e.vertex.uniforms.add("vvSizeMinSize", "vec3"), e.vertex.uniforms.add("vvSizeMaxSize", "vec3"), e.vertex.uniforms.add("vvSizeOffset", "vec3"), e.vertex.uniforms.add("vvSizeFactor", "vec3"), e.vertex.code.add(n.glsl(r || (r = i(["\n float getSize() {\n return symbolLineWidth * clamp(vvSizeOffset + sizeFeatureAttribute * vvSizeFactor, vvSizeMinSize, vvSizeMaxSize).x;\n }\n "], ["\n float getSize() {\n return symbolLineWidth * clamp(vvSizeOffset + sizeFeatureAttribute * vvSizeFactor, vvSizeMinSize, vvSizeMaxSize).x;\n }\n "]))))) : (e.attributes.add("size", "float"), e.vertex.code.add(n.glsl(a || (a = i(["\n float getSize(){\n return symbolLineWidth * size;\n }\n "], ["\n float getSize(){\n return symbolLineWidth * size;\n }\n "]))))), t.vvOpacity ? (e.attributes.add("opacityFeatureAttribute", "float"), e.vertex.defines.addInt("VV_OPACITY_N", 8), e.vertex.code.add(n.glsl(v || (v = i(["\n uniform float vvOpacityValues[VV_OPACITY_N];\n uniform float vvOpacityOpacities[VV_OPACITY_N];\n\n float interpolateOpacity( float value ){\n if (value <= vvOpacityValues[0]) {\n return vvOpacityOpacities[0];\n }\n\n for (int i = 1; i < VV_OPACITY_N; ++i) {\n if (vvOpacityValues[i] >= value) {\n float f = (value - vvOpacityValues[i-1]) / (vvOpacityValues[i] - vvOpacityValues[i-1]);\n return mix(vvOpacityOpacities[i-1], vvOpacityOpacities[i], f);\n }\n }\n\n return vvOpacityOpacities[VV_OPACITY_N - 1];\n }\n\n vec4 applyOpacity( vec4 color ){\n return vec4(color.xyz, interpolateOpacity(opacityFeatureAttribute));\n }\n "], ["\n uniform float vvOpacityValues[VV_OPACITY_N];\n uniform float vvOpacityOpacities[VV_OPACITY_N];\n\n float interpolateOpacity( float value ){\n if (value <= vvOpacityValues[0]) {\n return vvOpacityOpacities[0];\n }\n\n for (int i = 1; i < VV_OPACITY_N; ++i) {\n if (vvOpacityValues[i] >= value) {\n float f = (value - vvOpacityValues[i-1]) / (vvOpacityValues[i] - vvOpacityValues[i-1]);\n return mix(vvOpacityOpacities[i-1], vvOpacityOpacities[i], f);\n }\n }\n\n return vvOpacityOpacities[VV_OPACITY_N - 1];\n }\n\n vec4 applyOpacity( vec4 color ){\n return vec4(color.xyz, interpolateOpacity(opacityFeatureAttribute));\n }\n "]))))) : e.vertex.code.add(n.glsl(l || (l = i(["\n vec4 applyOpacity( vec4 color ){\n return color;\n }\n "], ["\n vec4 applyOpacity( vec4 color ){\n return color;\n }\n "])))), t.vvColor ? (e.attributes.add("colorFeatureAttribute", "float"), e.vertex.defines.addInt("VV_COLOR_N", 8), e.vertex.code.add(n.glsl(u || (u = i(["\n uniform float vvColorValues[VV_COLOR_N];\n uniform vec4 vvColorColors[VV_COLOR_N];\n\n vec4 interpolateColor( float value ) {\n if (value <= vvColorValues[0]) {\n return vvColorColors[0];\n }\n\n for (int i = 1; i < VV_COLOR_N; ++i) {\n if (vvColorValues[i] >= value) {\n float f = (value - vvColorValues[i-1]) / (vvColorValues[i] - vvColorValues[i-1]);\n return mix(vvColorColors[i-1], vvColorColors[i], f);\n }\n }\n\n return vvColorColors[VV_COLOR_N - 1];\n }\n\n vec4 getColor(){\n return applyOpacity(interpolateColor(colorFeatureAttribute));\n }\n "], ["\n uniform float vvColorValues[VV_COLOR_N];\n uniform vec4 vvColorColors[VV_COLOR_N];\n\n vec4 interpolateColor( float value ) {\n if (value <= vvColorValues[0]) {\n return vvColorColors[0];\n }\n\n for (int i = 1; i < VV_COLOR_N; ++i) {\n if (vvColorValues[i] >= value) {\n float f = (value - vvColorValues[i-1]) / (vvColorValues[i] - vvColorValues[i-1]);\n return mix(vvColorColors[i-1], vvColorColors[i], f);\n }\n }\n\n return vvColorColors[VV_COLOR_N - 1];\n }\n\n vec4 getColor(){\n return applyOpacity(interpolateColor(colorFeatureAttribute));\n }\n "]))))) : (e.attributes.add("color", "vec4"), e.vertex.code.add(n.glsl(c || (c = i(["\n vec4 getColor(){\n return applyOpacity(color);\n }\n "], ["\n vec4 getColor(){\n return applyOpacity(color);\n }\n "])))));
}
Object.defineProperty(t, "__esModule", {
value: !0
}), t.RibbonVertexPosition = o;
var r, a, v, l, u, c;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/attributes/TextureCoordinateAttribute.glsl.js":
/*!***************************************************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/attributes/TextureCoordinateAttribute.glsl.js ***!
\***************************************************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineCoreShaderLibraryAttributesTextureCoordinateAttributeGlslJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../../core/tsSupport/makeTemplateObjectHelper */
"./node_modules/arcgis-js-api/core/tsSupport/makeTemplateObjectHelper.js"), __webpack_require__(
/*! ../../shaderModules/interfaces */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/interfaces.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, r, t, o) {
function d(e, r) {
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}
Object.defineProperty(r, "__esModule", {
value: !0
}), r.TextureCoordinateAttribute = d;
var n, v, u;
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/*!************************************************************************************************************!*\
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function node_modulesArcgisJsApiViews3dWebglEngineCoreShaderLibraryAttributesVertexColorGlslJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../../core/tsSupport/makeTemplateObjectHelper */
"./node_modules/arcgis-js-api/core/tsSupport/makeTemplateObjectHelper.js"), __webpack_require__(
/*! ../../shaderModules/interfaces */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/interfaces.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (o, r, e, d) {
function l(o, r) {
r.attributeColor ? (o.attributes.add("color", "vec4"), o.varyings.add("vColor", "vec4"), o.vertex.code.add(d.glsl(t || (t = e(["\n void forwardVertexColor() { vColor = color; }\n "], ["\n void forwardVertexColor() { vColor = color; }\n "])))), o.vertex.code.add(d.glsl(a || (a = e(["\n void forwardNormalizedVertexColor() { vColor = color * 0.003921568627451; }\n "], ["\n void forwardNormalizedVertexColor() { vColor = color * 0.003921568627451; }\n "]))))) : o.vertex.code.add(d.glsl(n || (n = e(["\n void forwardVertexColor() {}\n void forwardNormalizedVertexColor() {}\n "], ["\n void forwardVertexColor() {}\n void forwardNormalizedVertexColor() {}\n "]))));
}
Object.defineProperty(r, "__esModule", {
value: !0
}), r.VertexColor = l;
var t, a, n;
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/*!*************************************************************************************************************!*\
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\*************************************************************************************************************/
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/***/
function node_modulesArcgisJsApiViews3dWebglEngineCoreShaderLibraryAttributesVertexNormalGlslJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../../core/tsSupport/makeTemplateObjectHelper */
"./node_modules/arcgis-js-api/core/tsSupport/makeTemplateObjectHelper.js"), __webpack_require__(
/*! ./NormalAttribute.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/attributes/NormalAttribute.glsl.js"), __webpack_require__(
/*! ../../shaderModules/interfaces */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/interfaces.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (r, o, a, l, e) {
function m(r, o) {
0 === o.normalType || 1 === o.normalType ? (r.include(l.NormalAttribute, o), r.varyings.add("vNormalWorld", "vec3"), r.varyings.add("vNormalView", "vec3"), r.vertex.uniforms.add("uTransformNormal_GlobalFromModel", "mat3"), r.vertex.uniforms.add("uTransformNormal_ViewFromGlobal", "mat3"), r.vertex.code.add(e.glsl(n || (n = a(["\n void forwardNormal() {\n vNormalWorld = uTransformNormal_GlobalFromModel * normalModel();\n vNormalView = uTransformNormal_ViewFromGlobal * vNormalWorld;\n }\n "], ["\n void forwardNormal() {\n vNormalWorld = uTransformNormal_GlobalFromModel * normalModel();\n vNormalView = uTransformNormal_ViewFromGlobal * vNormalWorld;\n }\n "]))))) : r.vertex.code.add(e.glsl(d || (d = a(["\n void forwardNormal() {}\n "], ["\n void forwardNormal() {}\n "]))));
}
Object.defineProperty(o, "__esModule", {
value: !0
}), o.VertexNormal = m, function (r) {
function o(r, o) {
r.setUniformMatrix4fv("viewNormal", o.viewInvTransp);
}
r.bindUniforms = o;
}(m = o.VertexNormal || (o.VertexNormal = {}));
var n, d;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
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/*!*************************************************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/attributes/VertexTextureCoordinates.glsl.js ***!
\*************************************************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineCoreShaderLibraryAttributesVertexTextureCoordinatesGlslJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../../core/tsSupport/makeTemplateObjectHelper */
"./node_modules/arcgis-js-api/core/tsSupport/makeTemplateObjectHelper.js"), __webpack_require__(
/*! ./TextureCoordinateAttribute.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/attributes/TextureCoordinateAttribute.glsl.js"), __webpack_require__(
/*! ../util/TextureAtlasLookup.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/util/TextureAtlasLookup.glsl.js"), __webpack_require__(
/*! ../../shaderModules/interfaces */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/interfaces.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, t, r, u, a, o) {
function n(e, t) {
e.include(u.TextureCoordinateAttribute, t), e.fragment.code.add(o.glsl(s || (s = r(["\n struct TextureLookupParameter {\n vec2 uv;\n ", "\n } vtc;\n "], ["\n struct TextureLookupParameter {\n vec2 uv;\n ", "\n } vtc;\n "])), t.supportsTextureAtlas ? "vec2 size;" : "")), 1 === t.attributeTextureCoordinates && e.fragment.code.add(o.glsl(p || (p = r(["\n vec4 textureLookup(sampler2D tex, TextureLookupParameter params) {\n return texture2D(tex, params.uv);\n }\n "], ["\n vec4 textureLookup(sampler2D tex, TextureLookupParameter params) {\n return texture2D(tex, params.uv);\n }\n "])))), 2 === t.attributeTextureCoordinates && (e.include(a.TextureAtlasLookup), e.fragment.code.add(o.glsl(x || (x = r(["\n vec4 textureLookup(sampler2D tex, TextureLookupParameter params) {\n return textureAtlasLookup(tex, params.size, params.uv, vuvRegion);\n }\n "], ["\n vec4 textureLookup(sampler2D tex, TextureLookupParameter params) {\n return textureAtlasLookup(tex, params.size, params.uv, vuvRegion);\n }\n "])))));
}
Object.defineProperty(t, "__esModule", {
value: !0
}), t.VertexTextureCoordinates = n;
var s, p, x;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/attributes/VerticalOffset.glsl.js":
/*!***************************************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/attributes/VerticalOffset.glsl.js ***!
\***************************************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineCoreShaderLibraryAttributesVerticalOffsetGlslJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../../core/tsSupport/makeTemplateObjectHelper */
"./node_modules/arcgis-js-api/core/tsSupport/makeTemplateObjectHelper.js"), __webpack_require__(
/*! ../util/ScreenSizePerspective.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/util/ScreenSizePerspective.glsl.js"), __webpack_require__(
/*! ../../shaderModules/interfaces */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/interfaces.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, l, t, r, c) {
function n(e, l) {
var n = e.vertex.code;
l.verticalOffsetEnabled && (e.vertex.uniforms.add("verticalOffset", "vec4"), l.screenSizePerspectiveEnabled && (e.include(r.ScreenSizePerspective), e.vertex.uniforms.add("screenSizePerspectiveAlignment", "vec4")), n.add(c.glsl(i || (i = t(["\n vec3 calculateVerticalOffset(vec3 worldPos, vec3 localOrigin) {\n float viewDistance = length((view * vec4(worldPos, 1.0)).xyz);\n "], ["\n vec3 calculateVerticalOffset(vec3 worldPos, vec3 localOrigin) {\n float viewDistance = length((view * vec4(worldPos, 1.0)).xyz);\n "])))), 0 === l.viewingMode ? n.add(c.glsl(a || (a = t(["\n vec3 worldNormal = normalize(worldPos + localOrigin);\n "], ["\n vec3 worldNormal = normalize(worldPos + localOrigin);\n "])))) : n.add(c.glsl(s || (s = t(["\n vec3 worldNormal = vec3(0.0, 0.0, 1.0);\n "], ["\n vec3 worldNormal = vec3(0.0, 0.0, 1.0);\n "])))), l.screenSizePerspectiveEnabled ? n.add(c.glsl(o || (o = t(["\n float cosAngle = dot(worldNormal, normalize(worldPos - camPos));\n float verticalOffsetScreenHeight = screenSizePerspectiveScaleFloat(verticalOffset.x, abs(cosAngle), viewDistance, screenSizePerspectiveAlignment);\n "], ["\n float cosAngle = dot(worldNormal, normalize(worldPos - camPos));\n float verticalOffsetScreenHeight = screenSizePerspectiveScaleFloat(verticalOffset.x, abs(cosAngle), viewDistance, screenSizePerspectiveAlignment);\n "])))) : n.add(c.glsl(f || (f = t(["\n float verticalOffsetScreenHeight = verticalOffset.x;\n "], ["\n float verticalOffsetScreenHeight = verticalOffset.x;\n "])))), n.add(c.glsl(v || (v = t(["\n float worldOffset = clamp(verticalOffsetScreenHeight * verticalOffset.y * viewDistance, verticalOffset.z, verticalOffset.w);\n return worldNormal * worldOffset;\n }\n "], ["\n float worldOffset = clamp(verticalOffsetScreenHeight * verticalOffset.y * viewDistance, verticalOffset.z, verticalOffset.w);\n return worldNormal * worldOffset;\n }\n "])))));
}
Object.defineProperty(l, "__esModule", {
value: !0
}), l.VerticalOffset = n;
var i, a, s, o, f, v;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/output/OutputDepth.glsl.js":
/*!********************************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/output/OutputDepth.glsl.js ***!
\********************************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineCoreShaderLibraryOutputOutputDepthGlslJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../../core/tsSupport/makeTemplateObjectHelper */
"./node_modules/arcgis-js-api/core/tsSupport/makeTemplateObjectHelper.js"), __webpack_require__(
/*! ../util/RgbaFloatEncoding.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/util/RgbaFloatEncoding.glsl.js"), __webpack_require__(
/*! ../../shaderModules/interfaces */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/interfaces.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (t, e, a, n, l) {
function o(t, e) {
t.include(n.RgbaFloatEncoding), 3 === e.output ? (t.extensions.add("GL_OES_standard_derivatives"), t.fragment.code.add(l.glsl(r || (r = a(["\n float _calculateFragDepth(const in float depth) {\n // calc polygon offset\n const float SLOPE_SCALE = 2.0;\n const float BIAS = 2.0 * .000015259; // 1 / (2^16 - 1)\n float m = max(abs(dFdx(depth)), abs(dFdy(depth)));\n float result = depth + SLOPE_SCALE * m + BIAS;\n return clamp(result, .0, .999999);\n }\n\n void outputDepth(float _linearDepth) {\n gl_FragColor = float2rgba(_calculateFragDepth(_linearDepth));\n }\n "], ["\n float _calculateFragDepth(const in float depth) {\n // calc polygon offset\n const float SLOPE_SCALE = 2.0;\n const float BIAS = 2.0 * .000015259; // 1 / (2^16 - 1)\n float m = max(abs(dFdx(depth)), abs(dFdy(depth)));\n float result = depth + SLOPE_SCALE * m + BIAS;\n return clamp(result, .0, .999999);\n }\n\n void outputDepth(float _linearDepth) {\n gl_FragColor = float2rgba(_calculateFragDepth(_linearDepth));\n }\n "]))))) : 1 === e.output && t.fragment.code.add(l.glsl(p || (p = a(["\n void outputDepth(float _linearDepth) {\n gl_FragColor = float2rgba(_linearDepth);\n }\n "], ["\n void outputDepth(float _linearDepth) {\n gl_FragColor = float2rgba(_linearDepth);\n }\n "]))));
}
Object.defineProperty(e, "__esModule", {
value: !0
}), e.OutputDepth = o;
var r, p;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
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},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/output/OutputHighlight.glsl.js":
/*!************************************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/output/OutputHighlight.glsl.js ***!
\************************************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineCoreShaderLibraryOutputOutputHighlightGlslJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../../core/tsSupport/makeTemplateObjectHelper */
"./node_modules/arcgis-js-api/core/tsSupport/makeTemplateObjectHelper.js"), __webpack_require__(
/*! ../../shaderModules/interfaces */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/interfaces.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, t, i, r) {
function o(e) {
e.fragment.uniforms.add("depthTex", "sampler2D"), e.fragment.uniforms.add("highlightViewportPixelSz", "vec4"), e.fragment.code.add(r.glsl(g || (g = i(["\n void outputHighlight() {\n vec4 fragCoord = gl_FragCoord;\n\n float sceneDepth = texture2D(depthTex, (fragCoord.xy - highlightViewportPixelSz.xy) * highlightViewportPixelSz.zw).r;\n if (fragCoord.z > sceneDepth + 5e-6) {\n gl_FragColor = vec4(1.0, 1.0, 0.0, 1.0);\n }\n else {\n gl_FragColor = vec4(1.0, 0.0, 1.0, 1.0);\n }\n }\n "], ["\n void outputHighlight() {\n vec4 fragCoord = gl_FragCoord;\n\n float sceneDepth = texture2D(depthTex, (fragCoord.xy - highlightViewportPixelSz.xy) * highlightViewportPixelSz.zw).r;\n if (fragCoord.z > sceneDepth + 5e-6) {\n gl_FragColor = vec4(1.0, 1.0, 0.0, 1.0);\n }\n else {\n gl_FragColor = vec4(1.0, 0.0, 1.0, 1.0);\n }\n }\n "]))));
}
Object.defineProperty(t, "__esModule", {
value: !0
}), t.OutputHighlight = o, function (e) {
function t(e, t, i) {
e.bindTexture(i.highlightDepthTexture, 5), t.setUniform1i("depthTex", 5), t.setUniform4f("highlightViewportPixelSz", 0, 0, 1 / i.viewport[2], 1 / i.viewport[3]);
}
e.bindOutputHighlight = t;
}(o = t.OutputHighlight || (t.OutputHighlight = {}));
var g;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/AnalyticalSkyModel.glsl.js":
/*!****************************************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/AnalyticalSkyModel.glsl.js ***!
\****************************************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineCoreShaderLibraryShadingAnalyticalSkyModelGlslJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../../core/tsSupport/makeTemplateObjectHelper */
"./node_modules/arcgis-js-api/core/tsSupport/makeTemplateObjectHelper.js"), __webpack_require__(
/*! ../../shaderModules/interfaces */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/interfaces.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, n, t, a) {
function o(e) {
var n = e.fragment.code;
n.add(a.glsl(r || (r = t(["\n vec3 evaluateDiffuseIlluminationHemisphere(vec3 ambientGround, vec3 ambientSky, float NdotNG)\n {\n return ((1.0 - NdotNG) * ambientGround + (1.0 + NdotNG) * ambientSky) * 0.5;\n }\n "], ["\n vec3 evaluateDiffuseIlluminationHemisphere(vec3 ambientGround, vec3 ambientSky, float NdotNG)\n {\n return ((1.0 - NdotNG) * ambientGround + (1.0 + NdotNG) * ambientSky) * 0.5;\n }\n "])))), n.add(a.glsl(d || (d = t(["\n float integratedRadiance(float cosTheta2, float roughness)\n {\n return (cosTheta2 - 1.0) / (cosTheta2 * (1.0 - roughness * roughness) - 1.0);\n }\n "], ["\n float integratedRadiance(float cosTheta2, float roughness)\n {\n return (cosTheta2 - 1.0) / (cosTheta2 * (1.0 - roughness * roughness) - 1.0);\n }\n "])))), n.add(a.glsl(i || (i = t(["\n vec3 evaluateSpecularIlluminationHemisphere(vec3 ambientGround, vec3 ambientSky, float RdotNG, float roughness)\n {\n float cosTheta2 = 1.0 - RdotNG * RdotNG;\n float intRadTheta = integratedRadiance(cosTheta2, roughness);\n\n // Calculate the integrated directional radiance of the ground and the sky\n float ground = RdotNG < 0.0 ? 1.0 - intRadTheta : 1.0 + intRadTheta;\n float sky = 2.0 - ground;\n return (ground * ambientGround + sky * ambientSky) * 0.5;\n }\n "], ["\n vec3 evaluateSpecularIlluminationHemisphere(vec3 ambientGround, vec3 ambientSky, float RdotNG, float roughness)\n {\n float cosTheta2 = 1.0 - RdotNG * RdotNG;\n float intRadTheta = integratedRadiance(cosTheta2, roughness);\n\n // Calculate the integrated directional radiance of the ground and the sky\n float ground = RdotNG < 0.0 ? 1.0 - intRadTheta : 1.0 + intRadTheta;\n float sky = 2.0 - ground;\n return (ground * ambientGround + sky * ambientSky) * 0.5;\n }\n "]))));
}
Object.defineProperty(n, "__esModule", {
value: !0
}), n.AnalyticalSkyModel = o;
var r, d, i;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/ComputeNormalTexture.glsl.js":
/*!******************************************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/ComputeNormalTexture.glsl.js ***!
\******************************************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineCoreShaderLibraryShadingComputeNormalTextureGlslJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../../core/tsSupport/makeTemplateObjectHelper */
"./node_modules/arcgis-js-api/core/tsSupport/makeTemplateObjectHelper.js"), __webpack_require__(
/*! ../attributes/VertexTextureCoordinates.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/attributes/VertexTextureCoordinates.glsl.js"), __webpack_require__(
/*! ../../shaderModules/interfaces */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/interfaces.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (n, e, t, a, o) {
function r(n, e) {
var r = n.fragment;
r.uniforms.add("normalTexture", "sampler2D"), r.uniforms.add("normalTextureSize", "vec2"), e.vertexTangets ? (n.attributes.add("tangent", "vec4"), n.varyings.add("vTangent", "vec4"), n.vertex.code.add(o.glsl(s || (s = t(["\n void transformVertexTangent(mat3 modelTransformForNormals) {\n vTangent.xyz = modelTransformForNormals * tangent.xyz;\n vTangent.w = tangent.w;\n }\n "], ["\n void transformVertexTangent(mat3 modelTransformForNormals) {\n vTangent.xyz = modelTransformForNormals * tangent.xyz;\n vTangent.w = tangent.w;\n }\n "])))), 2 === e.doubleSidedMode ? r.code.add(o.glsl(g || (g = t(["\n mat3 computeTangentSpace(vec3 normal) {\n float tangentHeadedness = gl_FrontFacing ? vTangent.w : -vTangent.w;\n vec3 tangent = normalize(gl_FrontFacing ? vTangent.xyz : -vTangent.xyz);\n vec3 bitangent = cross(normal, tangent) * tangentHeadedness;\n return mat3(tangent, bitangent, normal);\n }\n "], ["\n mat3 computeTangentSpace(vec3 normal) {\n float tangentHeadedness = gl_FrontFacing ? vTangent.w : -vTangent.w;\n vec3 tangent = normalize(gl_FrontFacing ? vTangent.xyz : -vTangent.xyz);\n vec3 bitangent = cross(normal, tangent) * tangentHeadedness;\n return mat3(tangent, bitangent, normal);\n }\n "])))) : r.code.add(o.glsl(d || (d = t(["\n mat3 computeTangentSpace(vec3 normal) {\n float tangentHeadedness = vTangent.w;\n vec3 tangent = normalize(vTangent.xyz);\n vec3 bitangent = cross(normal, tangent) * tangentHeadedness;\n return mat3(tangent, bitangent, normal);\n }\n "], ["\n mat3 computeTangentSpace(vec3 normal) {\n float tangentHeadedness = vTangent.w;\n vec3 tangent = normalize(vTangent.xyz);\n vec3 bitangent = cross(normal, tangent) * tangentHeadedness;\n return mat3(tangent, bitangent, normal);\n }\n "]))))) : (n.extensions.add("GL_OES_standard_derivatives"), r.code.add(o.glsl(m || (m = t(['\n mat3 computeTangentSpace(vec3 normal, vec3 pos, vec2 st) {\n\n vec3 Q1 = dFdx(pos);\n vec3 Q2 = dFdy(pos);\n\n vec2 stx = dFdx(st);\n vec2 sty = dFdy(st);\n\n float det = stx.t * sty.s - sty.t * stx.s;\n\n vec3 T = stx.t * Q2 - sty.t * Q1; // compute tangent\n T = T - normal * dot(normal, T); // orthogonalize tangent\n T *= inversesqrt(max(dot(T,T), 1.e-10)); // "soft" normalize - goes to 0 when T goes to 0\n vec3 B = sign(det) * cross(normal, T); // assume normal is normalized, B has the same lenght as B\n return mat3(T, B, normal); // T and B go to 0 when the tangent space is not well defined by the uv coordinates\n }\n '], ['\n mat3 computeTangentSpace(vec3 normal, vec3 pos, vec2 st) {\n\n vec3 Q1 = dFdx(pos);\n vec3 Q2 = dFdy(pos);\n\n vec2 stx = dFdx(st);\n vec2 sty = dFdy(st);\n\n float det = stx.t * sty.s - sty.t * stx.s;\n\n vec3 T = stx.t * Q2 - sty.t * Q1; // compute tangent\n T = T - normal * dot(normal, T); // orthogonalize tangent\n T *= inversesqrt(max(dot(T,T), 1.e-10)); // "soft" normalize - goes to 0 when T goes to 0\n vec3 B = sign(det) * cross(normal, T); // assume normal is normalized, B has the same lenght as B\n return mat3(T, B, normal); // T and B go to 0 when the tangent space is not well defined by the uv coordinates\n }\n ']))))), 0 !== e.attributeTextureCoordinates && (n.include(a.VertexTextureCoordinates, e), r.code.add(o.glsl(l || (l = t(["\n vec3 computeTextureNormal(mat3 tangentSpace, vec2 uv) {\n vtc.uv = uv;\n ", "\n vec3 rawNormal = textureLookup(normalTexture, vtc).rgb * 2.0 - 1.0;\n return tangentSpace * rawNormal;\n }\n "], ["\n vec3 computeTextureNormal(mat3 tangentSpace, vec2 uv) {\n vtc.uv = uv;\n ", "\n vec3 rawNormal = textureLookup(normalTexture, vtc).rgb * 2.0 - 1.0;\n return tangentSpace * rawNormal;\n }\n "])), e.supportsTextureAtlas ? "vtc.size = normalTextureSize;" : "")));
}
Object.defineProperty(e, "__esModule", {
value: !0
}), e.ComputeNormalTexture = r;
var s, g, d, m, l;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/EvaluateAmbientLighting.glsl.js":
/*!*********************************************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/EvaluateAmbientLighting.glsl.js ***!
\*********************************************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineCoreShaderLibraryShadingEvaluateAmbientLightingGlslJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../../core/tsSupport/makeTemplateObjectHelper */
"./node_modules/arcgis-js-api/core/tsSupport/makeTemplateObjectHelper.js"), __webpack_require__(
/*! ../../shaderModules/interfaces */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/interfaces.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (n, i, e, t) {
function a(n, i) {
var a = n.fragment,
r = void 0 !== i.lightingSphericalHarmonicsOrder ? i.lightingSphericalHarmonicsOrder : 2;
0 === r ? (a.uniforms.add("lightingAmbientSH0", "vec3"), a.code.add(t.glsl(l || (l = e(["\n /**\n * @param normal shading normal in global coordinate space\n * @param ambientOcclusion amount of occlusion of the ambient light (1 => full occlusion)\n */\n vec3 calculateAmbientIrradiance(vec3 normal, float ambientOcclusion) {\n vec3 ambientLight = 0.282095 * lightingAmbientSH0;\n return ambientLight * (1.0 - ambientOcclusion);\n }\n "], ["\n /**\n * @param normal shading normal in global coordinate space\n * @param ambientOcclusion amount of occlusion of the ambient light (1 => full occlusion)\n */\n vec3 calculateAmbientIrradiance(vec3 normal, float ambientOcclusion) {\n vec3 ambientLight = 0.282095 * lightingAmbientSH0;\n return ambientLight * (1.0 - ambientOcclusion);\n }\n "]))))) : 1 === r ? (a.uniforms.add("lightingAmbientSH_R", "vec4"), a.uniforms.add("lightingAmbientSH_G", "vec4"), a.uniforms.add("lightingAmbientSH_B", "vec4"), a.code.add(t.glsl(o || (o = e(["\n vec3 calculateAmbientIrradiance(vec3 normal, float ambientOcclusion) {\n vec4 sh0 = vec4(\n 0.282095,\n 0.488603 * normal.x,\n 0.488603 * normal.z,\n 0.488603 * normal.y\n );\n vec3 ambientLight = vec3(\n dot(lightingAmbientSH_R, sh0),\n dot(lightingAmbientSH_G, sh0),\n dot(lightingAmbientSH_B, sh0)\n );\n return ambientLight * (1.0 - ambientOcclusion);\n }\n "], ["\n vec3 calculateAmbientIrradiance(vec3 normal, float ambientOcclusion) {\n vec4 sh0 = vec4(\n 0.282095,\n 0.488603 * normal.x,\n 0.488603 * normal.z,\n 0.488603 * normal.y\n );\n vec3 ambientLight = vec3(\n dot(lightingAmbientSH_R, sh0),\n dot(lightingAmbientSH_G, sh0),\n dot(lightingAmbientSH_B, sh0)\n );\n return ambientLight * (1.0 - ambientOcclusion);\n }\n "]))))) : 2 === r && (a.uniforms.add("lightingAmbientSH0", "vec3"), a.uniforms.add("lightingAmbientSH_R1", "vec4"), a.uniforms.add("lightingAmbientSH_G1", "vec4"), a.uniforms.add("lightingAmbientSH_B1", "vec4"), a.uniforms.add("lightingAmbientSH_R2", "vec4"), a.uniforms.add("lightingAmbientSH_G2", "vec4"), a.uniforms.add("lightingAmbientSH_B2", "vec4"), a.code.add(t.glsl(c || (c = e(["\n /**\n * @param normal shading normal in global coordinate space\n * @param ambientOcclusion amount of occlusion of the ambient light (1 => full occlusion)\n */\n vec3 calculateAmbientIrradiance(vec3 normal, float ambientOcclusion) {\n vec3 ambientLight = 0.282095 * lightingAmbientSH0;\n\n vec4 sh1 = vec4(\n 0.488603 * normal.x,\n 0.488603 * normal.z,\n 0.488603 * normal.y,\n 1.092548 * normal.x * normal.y\n );\n vec4 sh2 = vec4(\n 1.092548 * normal.y * normal.z,\n 0.315392 * (3.0 * normal.z * normal.z - 1.0),\n 1.092548 * normal.x * normal.z,\n 0.546274 * (normal.x * normal.x - normal.y * normal.y)\n );\n ambientLight += vec3(\n dot(lightingAmbientSH_R1, sh1),\n dot(lightingAmbientSH_G1, sh1),\n dot(lightingAmbientSH_B1, sh1)\n );\n ambientLight += vec3(\n dot(lightingAmbientSH_R2, sh2),\n dot(lightingAmbientSH_G2, sh2),\n dot(lightingAmbientSH_B2, sh2)\n );\n return ambientLight * (1.0 - ambientOcclusion);\n }\n "], ["\n /**\n * @param normal shading normal in global coordinate space\n * @param ambientOcclusion amount of occlusion of the ambient light (1 => full occlusion)\n */\n vec3 calculateAmbientIrradiance(vec3 normal, float ambientOcclusion) {\n vec3 ambientLight = 0.282095 * lightingAmbientSH0;\n\n vec4 sh1 = vec4(\n 0.488603 * normal.x,\n 0.488603 * normal.z,\n 0.488603 * normal.y,\n 1.092548 * normal.x * normal.y\n );\n vec4 sh2 = vec4(\n 1.092548 * normal.y * normal.z,\n 0.315392 * (3.0 * normal.z * normal.z - 1.0),\n 1.092548 * normal.x * normal.z,\n 0.546274 * (normal.x * normal.x - normal.y * normal.y)\n );\n ambientLight += vec3(\n dot(lightingAmbientSH_R1, sh1),\n dot(lightingAmbientSH_G1, sh1),\n dot(lightingAmbientSH_B1, sh1)\n );\n ambientLight += vec3(\n dot(lightingAmbientSH_R2, sh2),\n dot(lightingAmbientSH_G2, sh2),\n dot(lightingAmbientSH_B2, sh2)\n );\n return ambientLight * (1.0 - ambientOcclusion);\n }\n "])))), i.usePBR && a.code.add(t.glsl(m || (m = e(["\n // calculateAmbientRadiance is used calculate specular radiance of the sky\n // - in the night calculateAmbientRadiance gives darker color compared to calculateAmbientComponent which integrates contributions of the moon\n // - calculateAmbientRadiance gives more predictable color compared to calculateAmbientIrradiance that depends on normal\n // - in future more physically accurate model should be established\n vec3 calculateAmbientRadiance(float ssao)\n {\n // evaluate the sh ambient light\n vec3 ambientLight ;\n ambientLight = 1.2 * (0.282095 * lightingAmbientSH0) - 0.2; // returning the darker value in the night\n\n return ambientLight *= (1.0 - ssao) * skyTransmittance; // skyTransmittance is slightly bluish giving more natural look\n }\n "], ["\n // calculateAmbientRadiance is used calculate specular radiance of the sky\n // - in the night calculateAmbientRadiance gives darker color compared to calculateAmbientComponent which integrates contributions of the moon\n // - calculateAmbientRadiance gives more predictable color compared to calculateAmbientIrradiance that depends on normal\n // - in future more physically accurate model should be established\n vec3 calculateAmbientRadiance(float ssao)\n {\n // evaluate the sh ambient light\n vec3 ambientLight ;\n ambientLight = 1.2 * (0.282095 * lightingAmbientSH0) - 0.2; // returning the darker value in the night\n\n return ambientLight *= (1.0 - ssao) * skyTransmittance; // skyTransmittance is slightly bluish giving more natural look\n }\n "])))));
}
Object.defineProperty(i, "__esModule", {
value: !0
}), i.EvaluateAmbientLighting = a;
var l, o, c, m;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/EvaluateAmbientOcclusion.glsl.js":
/*!**********************************************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/EvaluateAmbientOcclusion.glsl.js ***!
\**********************************************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineCoreShaderLibraryShadingEvaluateAmbientOcclusionGlslJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../../core/tsSupport/makeTemplateObjectHelper */
"./node_modules/arcgis-js-api/core/tsSupport/makeTemplateObjectHelper.js"), __webpack_require__(
/*! ../../shaderModules/interfaces */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/interfaces.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, n, t, o) {
function r(e, n) {
var r = e.fragment;
n.receiveAmbientOcclusion ? (r.uniforms.add("ssaoTex", "sampler2D"), r.uniforms.add("viewportPixelSz", "vec4"), r.code.add(o.glsl(a || (a = t(["\n float evaluateAmbientOcclusion() {\n return 1.0 - texture2D(ssaoTex, (gl_FragCoord.xy - viewportPixelSz.xy) * viewportPixelSz.zw).a;\n }\n\n float evaluateAmbientOcclusionInverse() {\n float ssao = texture2D(ssaoTex, (gl_FragCoord.xy - viewportPixelSz.xy) * viewportPixelSz.zw).a;\n return viewportPixelSz.z < 0.0 ? 1.0 : ssao;\n }\n "], ["\n float evaluateAmbientOcclusion() {\n return 1.0 - texture2D(ssaoTex, (gl_FragCoord.xy - viewportPixelSz.xy) * viewportPixelSz.zw).a;\n }\n\n float evaluateAmbientOcclusionInverse() {\n float ssao = texture2D(ssaoTex, (gl_FragCoord.xy - viewportPixelSz.xy) * viewportPixelSz.zw).a;\n return viewportPixelSz.z < 0.0 ? 1.0 : ssao;\n }\n "]))))) : r.code.add(o.glsl(l || (l = t(["\n float evaluateAmbientOcclusion() { return 0.0; } // no occlusion\n float evaluateAmbientOcclusionInverse() { return 1.0; }\n "], ["\n float evaluateAmbientOcclusion() { return 0.0; } // no occlusion\n float evaluateAmbientOcclusionInverse() { return 1.0; }\n "]))));
}
Object.defineProperty(n, "__esModule", {
value: !0
}), n.EvaluateAmbientOcclusion = r;
var a, l;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/EvaluateMainLighting.glsl.js":
/*!******************************************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/EvaluateMainLighting.glsl.js ***!
\******************************************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineCoreShaderLibraryShadingEvaluateMainLightingGlslJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../../core/tsSupport/makeTemplateObjectHelper */
"./node_modules/arcgis-js-api/core/tsSupport/makeTemplateObjectHelper.js"), __webpack_require__(
/*! ../../shaderModules/interfaces */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/interfaces.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (n, i, t, a) {
function e(n) {
var i = n.fragment;
i.uniforms.add("lightingMainDirection", "vec3"), i.uniforms.add("lightingMainIntensity", "vec3"), i.uniforms.add("lightingFixedFactor", "float"), i.code.add(a.glsl(o || (o = t(["\n vec3 evaluateMainLighting(vec3 normal_global, float shadowing) {\n float dotVal = clamp(-dot(normal_global, lightingMainDirection), 0.0, 1.0);\n\n // move lighting towards (1.0, 1.0, 1.0) if requested\n dotVal = mix(dotVal, 1.0, lightingFixedFactor);\n\n return lightingMainIntensity * ((1.0 - shadowing) * dotVal);\n }\n "], ["\n vec3 evaluateMainLighting(vec3 normal_global, float shadowing) {\n float dotVal = clamp(-dot(normal_global, lightingMainDirection), 0.0, 1.0);\n\n // move lighting towards (1.0, 1.0, 1.0) if requested\n dotVal = mix(dotVal, 1.0, lightingFixedFactor);\n\n return lightingMainIntensity * ((1.0 - shadowing) * dotVal);\n }\n "]))));
}
Object.defineProperty(i, "__esModule", {
value: !0
}), i.EvaluateMainLighting = e;
var o;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/EvaluateSceneLighting.glsl.js":
/*!*******************************************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/EvaluateSceneLighting.glsl.js ***!
\*******************************************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineCoreShaderLibraryShadingEvaluateSceneLightingGlslJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../../core/tsSupport/makeTemplateObjectHelper */
"./node_modules/arcgis-js-api/core/tsSupport/makeTemplateObjectHelper.js"), __webpack_require__(
/*! ./EvaluateAmbientLighting.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/EvaluateAmbientLighting.glsl.js"), __webpack_require__(
/*! ./EvaluateAmbientOcclusion.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/EvaluateAmbientOcclusion.glsl.js"), __webpack_require__(
/*! ./EvaluateMainLighting.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/EvaluateMainLighting.glsl.js"), __webpack_require__(
/*! ./PhysicallyBasedRendering.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/PhysicallyBasedRendering.glsl.js"), __webpack_require__(
/*! ./PiUtils.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/PiUtils.glsl.js"), __webpack_require__(
/*! ./ReadShadowMap.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/ReadShadowMap.glsl.js"), __webpack_require__(
/*! ../../shaderModules/interfaces */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/interfaces.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (n, e, t, i, a, o, l, r, c, d) {
function s(n, e) {
var s = n.fragment;
n.include(o.EvaluateMainLighting), n.include(a.EvaluateAmbientOcclusion, e), e.usePBR && n.include(l.PhysicallyBasedRendering, e), n.include(i.EvaluateAmbientLighting, e), e.receiveShadows && n.include(c.ReadShadowMap, e), s.uniforms.add("lightingGlobalFactor", "float"), s.uniforms.add("ambientBoostFactor", "float"), e.useOldSceneLightInterface ? (n.include(r.PiUtils), s.code.add(d.glsl(m || (m = t(["\n const float GAMMA_SRGB = 2.1;\n const float INV_GAMMA_SRGB = 0.4761904; // 1 / GAMMA_SRGB\n\n vec3 evaluateSceneLightingExt(vec3 normal, vec3 albedo, float shadow, float ssao, vec3 additionalLight) {\n // evaluate the main light\n #if defined(TREE_RENDERING)\n // Special case for tree rendering:\n // We shift the Lambert lobe to the back, allowing it to reach part of the hemisphere\n // facing away from the light. The idea is to get an effect where light is transmitted\n // through the tree.\n float minDot = -0.5;\n float dotRange = 1.0 - minDot;\n float dotNormalization = 0.66; // guessed & hand tweaked value, for an exact value we could precompute an integral over the sphere\n\n float dotVal = dotNormalization * (clamp(-dot(normal, lightingMainDirection), 1.0 - dotRange, 1.0) - minDot) * (1.0 / dotRange);\n #else\n float dotVal = clamp(-dot(normal, lightingMainDirection), 0.0, 1.0);\n #endif\n\n // move lighting towards (1.0, 1.0, 1.0) if requested\n dotVal = mix(dotVal, 1.0, lightingFixedFactor);\n\n vec3 mainLight = (1.0 - shadow) * lightingMainIntensity * dotVal;\n vec3 ambientLight = calculateAmbientIrradiance(normal, ssao);\n\n // inverse gamma correction on the albedo color\n vec3 albedoGammaC = pow(albedo, vec3(GAMMA_SRGB));\n\n // physically correct BRDF normalizes by PI\n vec3 totalLight = mainLight + ambientLight + additionalLight;\n totalLight = min(totalLight, vec3(PI, PI, PI));\n vec3 outColor = vec3((albedoGammaC / PI) * (totalLight));\n\n // apply gamma correction to the computed color\n outColor = pow(outColor, vec3(1.0/GAMMA_SRGB));\n\n return outColor;\n }\n "], ["\n const float GAMMA_SRGB = 2.1;\n const float INV_GAMMA_SRGB = 0.4761904; // 1 / GAMMA_SRGB\n\n vec3 evaluateSceneLightingExt(vec3 normal, vec3 albedo, float shadow, float ssao, vec3 additionalLight) {\n // evaluate the main light\n #if defined(TREE_RENDERING)\n // Special case for tree rendering:\n // We shift the Lambert lobe to the back, allowing it to reach part of the hemisphere\n // facing away from the light. The idea is to get an effect where light is transmitted\n // through the tree.\n float minDot = -0.5;\n float dotRange = 1.0 - minDot;\n float dotNormalization = 0.66; // guessed & hand tweaked value, for an exact value we could precompute an integral over the sphere\n\n float dotVal = dotNormalization * (clamp(-dot(normal, lightingMainDirection), 1.0 - dotRange, 1.0) - minDot) * (1.0 / dotRange);\n #else\n float dotVal = clamp(-dot(normal, lightingMainDirection), 0.0, 1.0);\n #endif\n\n // move lighting towards (1.0, 1.0, 1.0) if requested\n dotVal = mix(dotVal, 1.0, lightingFixedFactor);\n\n vec3 mainLight = (1.0 - shadow) * lightingMainIntensity * dotVal;\n vec3 ambientLight = calculateAmbientIrradiance(normal, ssao);\n\n // inverse gamma correction on the albedo color\n vec3 albedoGammaC = pow(albedo, vec3(GAMMA_SRGB));\n\n // physically correct BRDF normalizes by PI\n vec3 totalLight = mainLight + ambientLight + additionalLight;\n totalLight = min(totalLight, vec3(PI, PI, PI));\n vec3 outColor = vec3((albedoGammaC / PI) * (totalLight));\n\n // apply gamma correction to the computed color\n outColor = pow(outColor, vec3(1.0/GAMMA_SRGB));\n\n return outColor;\n }\n "]))))) : (0 === e.viewingMode ? s.code.add(d.glsl(h || (h = t(["\n float _oldHeuristicLighting(vec3 vPosWorld) {\n vec3 shadingNormalWorld = normalize(vPosWorld);\n float vndl = -dot(shadingNormalWorld, lightingMainDirection);\n\n return smoothstep(0.0, 1.0, clamp(vndl * 2.5, 0.0, 1.0));\n }\n "], ["\n float _oldHeuristicLighting(vec3 vPosWorld) {\n vec3 shadingNormalWorld = normalize(vPosWorld);\n float vndl = -dot(shadingNormalWorld, lightingMainDirection);\n\n return smoothstep(0.0, 1.0, clamp(vndl * 2.5, 0.0, 1.0));\n }\n "])))) : s.code.add(d.glsl(g || (g = t(["\n float _oldHeuristicLighting(vec3 vPosWorld) {\n float vndl = -dot(vec3(0.0, 0.0, 1.0), lightingMainDirection);\n return smoothstep(0.0, 1.0, clamp(vndl * 2.5, 0.0, 1.0));\n }\n "], ["\n float _oldHeuristicLighting(vec3 vPosWorld) {\n float vndl = -dot(vec3(0.0, 0.0, 1.0), lightingMainDirection);\n return smoothstep(0.0, 1.0, clamp(vndl * 2.5, 0.0, 1.0));\n }\n "])))), s.code.add(d.glsl(u || (u = t(["\n vec3 evaluateAdditionalLighting(float ambientOcclusion, vec3 vPosWorld) {\n float additionalAmbientScale = _oldHeuristicLighting(vPosWorld);\n return (1.0 - ambientOcclusion) * additionalAmbientScale * ambientBoostFactor * lightingGlobalFactor * lightingMainIntensity;\n }\n "], ["\n vec3 evaluateAdditionalLighting(float ambientOcclusion, vec3 vPosWorld) {\n float additionalAmbientScale = _oldHeuristicLighting(vPosWorld);\n return (1.0 - ambientOcclusion) * additionalAmbientScale * ambientBoostFactor * lightingGlobalFactor * lightingMainIntensity;\n }\n "])))), e.usePBR ? (s.code.add(d.glsl(v || (v = t(["\n // The albedo color of the ground used in the environment illumination algorithm\n const float GROUND_REFLECTANCE = 0.2; //This is the set value of the diffuse reflectance of the ground surface\n\n const float GAMMA_SRGB = 2.1;\n const float INV_GAMMA_SRGB = 0.4761904; // 1 / GAMMA_SRGB\n "], ["\n // The albedo color of the ground used in the environment illumination algorithm\n const float GROUND_REFLECTANCE = 0.2; //This is the set value of the diffuse reflectance of the ground surface\n\n const float GAMMA_SRGB = 2.1;\n const float INV_GAMMA_SRGB = 0.4761904; // 1 / GAMMA_SRGB\n "])))), s.code.add(d.glsl(f || (f = t(["\n vec3 evaluateSceneLightingPBR(vec3 normal, vec3 albedo, float shadow, float ssao, vec3 additionalLight, vec3 viewDir, vec3 normalGround, float _roughness, float _metalness, vec3 _emission, float _reflectance, float additionalAmbientIrradiance)\n {\n // Calculate half vector between view and light direction\n vec3 viewDirection = -viewDir;\n vec3 mainLightDirection = -lightingMainDirection;\n vec3 h = normalize(viewDirection + mainLightDirection);\n\n PBRShadingInfo inputs;\n inputs.NdotL = clamp(dot(normal, mainLightDirection), 0.001, 1.0);\n inputs.NdotV = clamp(abs(dot(normal, viewDirection)), 0.001, 1.0);\n inputs.NdotH = clamp(dot(normal, h), 0.0, 1.0);\n inputs.VdotH = clamp(dot(viewDirection, h), 0.0, 1.0);\n inputs.NdotNG = clamp(dot(normal, normalGround), -1.0, 1.0);\n vec3 reflectedView = normalize(reflect(viewDirection, normal));\n inputs.RdotNG = clamp(dot(reflectedView, normalGround), -1.0, 1.0);\n\n inputs.albedoLinear = pow(albedo, vec3(GAMMA_SRGB));\n inputs.groundReflectance = vec3(GROUND_REFLECTANCE);\n inputs.ssao = ssao;\n\n inputs.roughness = clamp(_roughness * _roughness, 0.001, 0.99);\n inputs.metalness = _metalness;\n "], ["\n vec3 evaluateSceneLightingPBR(vec3 normal, vec3 albedo, float shadow, float ssao, vec3 additionalLight, vec3 viewDir, vec3 normalGround, float _roughness, float _metalness, vec3 _emission, float _reflectance, float additionalAmbientIrradiance)\n {\n // Calculate half vector between view and light direction\n vec3 viewDirection = -viewDir;\n vec3 mainLightDirection = -lightingMainDirection;\n vec3 h = normalize(viewDirection + mainLightDirection);\n\n PBRShadingInfo inputs;\n inputs.NdotL = clamp(dot(normal, mainLightDirection), 0.001, 1.0);\n inputs.NdotV = clamp(abs(dot(normal, viewDirection)), 0.001, 1.0);\n inputs.NdotH = clamp(dot(normal, h), 0.0, 1.0);\n inputs.VdotH = clamp(dot(viewDirection, h), 0.0, 1.0);\n inputs.NdotNG = clamp(dot(normal, normalGround), -1.0, 1.0);\n vec3 reflectedView = normalize(reflect(viewDirection, normal));\n inputs.RdotNG = clamp(dot(reflectedView, normalGround), -1.0, 1.0);\n\n inputs.albedoLinear = pow(albedo, vec3(GAMMA_SRGB));\n inputs.groundReflectance = vec3(GROUND_REFLECTANCE);\n inputs.ssao = ssao;\n\n inputs.roughness = clamp(_roughness * _roughness, 0.001, 0.99);\n inputs.metalness = _metalness;\n "])))), s.code.add(d.glsl(L || (L = t(["\n inputs.f0 = (0.16 * _reflectance * _reflectance) * (1.0 - inputs.metalness) + inputs.albedoLinear * inputs.metalness;\n inputs.f90 = vec3(clamp(dot(inputs.f0, vec3(50.0 * 0.33)), 0.0, 1.0)); // more accurate then using f90 = 1.0\n inputs.diffuseColor = inputs.albedoLinear * (vec3(1.0) - inputs.f0) * (1.0 - inputs.metalness);\n "], ["\n inputs.f0 = (0.16 * _reflectance * _reflectance) * (1.0 - inputs.metalness) + inputs.albedoLinear * inputs.metalness;\n inputs.f90 = vec3(clamp(dot(inputs.f0, vec3(50.0 * 0.33)), 0.0, 1.0)); // more accurate then using f90 = 1.0\n inputs.diffuseColor = inputs.albedoLinear * (vec3(1.0) - inputs.f0) * (1.0 - inputs.metalness);\n "])))), s.code.add(d.glsl(b || (b = t(["\n vec3 ambientDir = normalize(vec3(5.0 * normalGround[1] - normalGround[0] * normalGround[2],\n - 5.0 * normalGround[0] - normalGround[2] * normalGround[1],\n normalGround[1] * normalGround[1] + normalGround[0] * normalGround[0]));\n\n inputs.NdotAmbDir = abs(dot(normal, ambientDir));\n\n // Calculate the irradiance components: sun, fill lights and the sky.\n vec3 mainLightIrradianceComponent = inputs.NdotL * (1.0 - shadow) * lightingMainIntensity;\n vec3 fillLightsIrradianceComponent = inputs.NdotAmbDir * lightingMainIntensity * fillLightIntensity;\n // calculateAmbientIrradiance for localView and additionalLight for gloabalView\n vec3 ambientLightIrradianceComponent = calculateAmbientIrradiance(normal, ssao) + additionalLight;\n\n // Assemble the overall irradiance of the sky that illuminates the surface\n inputs.skyIrradianceToSurface = ambientLightIrradianceComponent + mainLightIrradianceComponent + fillLightsIrradianceComponent ;\n // Assemble the overall irradiance of the ground that illuminates the surface. for this we use the simple model that changes only the sky irradiance by the groundReflectance\n inputs.groundIrradianceToSurface = inputs.groundReflectance * ambientLightIrradianceComponent + mainLightIrradianceComponent + fillLightsIrradianceComponent ;\n "], ["\n vec3 ambientDir = normalize(vec3(5.0 * normalGround[1] - normalGround[0] * normalGround[2],\n - 5.0 * normalGround[0] - normalGround[2] * normalGround[1],\n normalGround[1] * normalGround[1] + normalGround[0] * normalGround[0]));\n\n inputs.NdotAmbDir = abs(dot(normal, ambientDir));\n\n // Calculate the irradiance components: sun, fill lights and the sky.\n vec3 mainLightIrradianceComponent = inputs.NdotL * (1.0 - shadow) * lightingMainIntensity;\n vec3 fillLightsIrradianceComponent = inputs.NdotAmbDir * lightingMainIntensity * fillLightIntensity;\n // calculateAmbientIrradiance for localView and additionalLight for gloabalView\n vec3 ambientLightIrradianceComponent = calculateAmbientIrradiance(normal, ssao) + additionalLight;\n\n // Assemble the overall irradiance of the sky that illuminates the surface\n inputs.skyIrradianceToSurface = ambientLightIrradianceComponent + mainLightIrradianceComponent + fillLightsIrradianceComponent ;\n // Assemble the overall irradiance of the ground that illuminates the surface. for this we use the simple model that changes only the sky irradiance by the groundReflectance\n inputs.groundIrradianceToSurface = inputs.groundReflectance * ambientLightIrradianceComponent + mainLightIrradianceComponent + fillLightsIrradianceComponent ;\n "])))), s.code.add(d.glsl(R || (R = t(["\n vec3 horizonRingDir = inputs.RdotNG * normalGround - reflectedView;\n vec3 horizonRingH = normalize(viewDirection + horizonRingDir);\n inputs.NdotH_Horizon = dot(normal, horizonRingH);\n\n vec3 mainLightRadianceComponent = normalDistribution(inputs.NdotH, inputs.roughness) * lightingMainIntensity * (1.0 - shadow);\n vec3 horizonLightRadianceComponent = normalDistribution(inputs.NdotH_Horizon, min(inputs.roughness + horizonLightDiffusion, 1.0)) * lightingMainIntensity * fillLightIntensity;\n vec3 ambientLightRadianceComponent = calculateAmbientRadiance(ssao) + additionalLight; // calculateAmbientRadiance for localView and additionalLight for gloabalView\n\n // Assemble the overall radiance of the sky that illuminates the surface\n inputs.skyRadianceToSurface = ambientLightRadianceComponent + mainLightRadianceComponent + horizonLightRadianceComponent;\n // Assemble the overall radiance of the ground that illuminates the surface. for this we use the simple model that changes only the sky radince by the groundReflectance\n inputs.groundRadianceToSurface = inputs.groundReflectance * (ambientLightRadianceComponent + horizonLightRadianceComponent) + mainLightRadianceComponent;\n\n // Calculate average ambient radiance - this is used int the gamut mapping part to deduce the black level that is soft compressed\n inputs.averageAmbientRadiance = ambientLightIrradianceComponent[1] * (1.0 + inputs.groundReflectance[1]);\n "], ["\n vec3 horizonRingDir = inputs.RdotNG * normalGround - reflectedView;\n vec3 horizonRingH = normalize(viewDirection + horizonRingDir);\n inputs.NdotH_Horizon = dot(normal, horizonRingH);\n\n vec3 mainLightRadianceComponent = normalDistribution(inputs.NdotH, inputs.roughness) * lightingMainIntensity * (1.0 - shadow);\n vec3 horizonLightRadianceComponent = normalDistribution(inputs.NdotH_Horizon, min(inputs.roughness + horizonLightDiffusion, 1.0)) * lightingMainIntensity * fillLightIntensity;\n vec3 ambientLightRadianceComponent = calculateAmbientRadiance(ssao) + additionalLight; // calculateAmbientRadiance for localView and additionalLight for gloabalView\n\n // Assemble the overall radiance of the sky that illuminates the surface\n inputs.skyRadianceToSurface = ambientLightRadianceComponent + mainLightRadianceComponent + horizonLightRadianceComponent;\n // Assemble the overall radiance of the ground that illuminates the surface. for this we use the simple model that changes only the sky radince by the groundReflectance\n inputs.groundRadianceToSurface = inputs.groundReflectance * (ambientLightRadianceComponent + horizonLightRadianceComponent) + mainLightRadianceComponent;\n\n // Calculate average ambient radiance - this is used int the gamut mapping part to deduce the black level that is soft compressed\n inputs.averageAmbientRadiance = ambientLightIrradianceComponent[1] * (1.0 + inputs.groundReflectance[1]);\n "])))), s.code.add(d.glsl(C || (C = t(["\n vec3 reflectedColorComponent = evaluateEnvironmentIllumination(inputs);\n vec3 additionalMaterialReflectanceComponent = inputs.albedoLinear * additionalAmbientIrradiance;\n vec3 emissionComponent = pow(_emission, vec3(GAMMA_SRGB));\n vec3 outColorLinear = reflectedColorComponent + additionalMaterialReflectanceComponent + emissionComponent;\n vec3 outColor = pow(blackLevelSoftCompression(outColorLinear, inputs), vec3(INV_GAMMA_SRGB));\n return outColor;\n }\n "], ["\n vec3 reflectedColorComponent = evaluateEnvironmentIllumination(inputs);\n vec3 additionalMaterialReflectanceComponent = inputs.albedoLinear * additionalAmbientIrradiance;\n vec3 emissionComponent = pow(_emission, vec3(GAMMA_SRGB));\n vec3 outColorLinear = reflectedColorComponent + additionalMaterialReflectanceComponent + emissionComponent;\n vec3 outColor = pow(blackLevelSoftCompression(outColorLinear, inputs), vec3(INV_GAMMA_SRGB));\n return outColor;\n }\n "]))))) : s.code.add(d.glsl(p || (p = t(["\n vec3 evaluateSceneLighting(vec3 normalWorld, vec3 baseColor, float mainLightShadow, float ambientOcclusion, vec3 additionalLight)\n {\n vec3 mainLighting = evaluateMainLighting(normalWorld, mainLightShadow);\n vec3 ambientLighting = calculateAmbientIrradiance(normalWorld, ambientOcclusion);\n // inverse gamma correction on the base color\n float gamma = 2.1;\n vec3 baseColorLinear = pow(baseColor, vec3(gamma));\n\n // physically correct BRDF normalizes by PI\n const float PI = 3.14159;\n vec3 totalLight = mainLighting + ambientLighting + additionalLight;\n totalLight = min(totalLight, vec3(PI, PI, PI));\n vec3 outColor = vec3((baseColorLinear / PI) * totalLight);\n\n // apply gamma correction to the computed color\n outColor = pow(outColor, vec3(1.0/gamma));\n\n return outColor;\n }\n "], ["\n vec3 evaluateSceneLighting(vec3 normalWorld, vec3 baseColor, float mainLightShadow, float ambientOcclusion, vec3 additionalLight)\n {\n vec3 mainLighting = evaluateMainLighting(normalWorld, mainLightShadow);\n vec3 ambientLighting = calculateAmbientIrradiance(normalWorld, ambientOcclusion);\n // inverse gamma correction on the base color\n float gamma = 2.1;\n vec3 baseColorLinear = pow(baseColor, vec3(gamma));\n\n // physically correct BRDF normalizes by PI\n const float PI = 3.14159;\n vec3 totalLight = mainLighting + ambientLighting + additionalLight;\n totalLight = min(totalLight, vec3(PI, PI, PI));\n vec3 outColor = vec3((baseColorLinear / PI) * totalLight);\n\n // apply gamma correction to the computed color\n outColor = pow(outColor, vec3(1.0/gamma));\n\n return outColor;\n }\n "])))));
}
Object.defineProperty(e, "__esModule", {
value: !0
}), e.EvaluateSceneLighting = s;
var m, h, g, u, p, v, f, L, b, R, C;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/Gamma.glsl.js":
/*!***************************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/Gamma.glsl.js ***!
\***************************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineCoreShaderLibraryShadingGammaGlslJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../../core/tsSupport/makeTemplateObjectHelper */
"./node_modules/arcgis-js-api/core/tsSupport/makeTemplateObjectHelper.js"), __webpack_require__(
/*! ../../shaderModules/interfaces */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/interfaces.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, n, o, r) {
function c(e) {
e.fragment.code.add(r.glsl(a || (a = o(["\n const float GAMMA = 2.2;\n const float INV_GAMMA = 0.4545454545; // 1 / GAMMA\n\n // gamma correction\n vec4 delinearizeGamma(vec4 color) {\n return vec4(pow(color.rgb, vec3(INV_GAMMA)), color.w);\n }\n\n vec3 linearizeGamma(vec3 color) {\n return pow(color, vec3(GAMMA));\n }\n "], ["\n const float GAMMA = 2.2;\n const float INV_GAMMA = 0.4545454545; // 1 / GAMMA\n\n // gamma correction\n vec4 delinearizeGamma(vec4 color) {\n return vec4(pow(color.rgb, vec3(INV_GAMMA)), color.w);\n }\n\n vec3 linearizeGamma(vec3 color) {\n return pow(color, vec3(GAMMA));\n }\n "]))));
}
Object.defineProperty(n, "__esModule", {
value: !0
}), n.Gamma = c;
var a;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/HighlightData.glsl.js":
/*!***********************************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/HighlightData.glsl.js ***!
\***********************************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineCoreShaderLibraryShadingHighlightDataGlslJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../../core/tsSupport/makeTemplateObjectHelper */
"./node_modules/arcgis-js-api/core/tsSupport/makeTemplateObjectHelper.js"), __webpack_require__(
/*! ../../shaderModules/interfaces */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/interfaces.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, r, t, n) {
function i(e) {
e.fragment.code.add(n.glsl(o || (o = t(["\n vec4 highlightData(vec4 fragCoord, sampler2D depthTex, vec4 viewportPixelSize) {\n float sceneDepth = texture2D(depthTex, (fragCoord.xy - viewportPixelSize.xy) * viewportPixelSize.zw).r;\n if (fragCoord.z > sceneDepth + 5e-7) {\n return vec4(1.0, 1.0, 0.0, 1.0);\n }\n else {\n return vec4(1.0, 0.0, 1.0, 1.0);\n }\n }\n "], ["\n vec4 highlightData(vec4 fragCoord, sampler2D depthTex, vec4 viewportPixelSize) {\n float sceneDepth = texture2D(depthTex, (fragCoord.xy - viewportPixelSize.xy) * viewportPixelSize.zw).r;\n if (fragCoord.z > sceneDepth + 5e-7) {\n return vec4(1.0, 1.0, 0.0, 1.0);\n }\n else {\n return vec4(1.0, 0.0, 1.0, 1.0);\n }\n }\n "]))));
}
Object.defineProperty(r, "__esModule", {
value: !0
}), r.HighlightData = i;
var o;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/LineStipple.glsl.js":
/*!*********************************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/LineStipple.glsl.js ***!
\*********************************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineCoreShaderLibraryShadingLineStippleGlslJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../../core/tsSupport/makeTemplateObjectHelper */
"./node_modules/arcgis-js-api/core/tsSupport/makeTemplateObjectHelper.js"), __webpack_require__(
/*! ../../shaderModules/interfaces */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/interfaces.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, l, p, t) {
function a(e, l) {
e.defines.addFloat("STIPPLE_ALPHA_COLOR_DISCARD", .001), e.defines.addFloat("STIPPLE_ALPHA_HIGHLIGHT_DISCARD", .5), l.stippleEnabled ? n(e, l) : i(e);
}
function n(e, l) {
e.vertex.uniforms.add("stipplePatternPixelSizeInv", "float"), l.stippleUVMaxEnabled && e.varyings.add("stipplePatternUvMax", "float"), e.varyings.add("stipplePatternUv", "float"), e.fragment.uniforms.add("stipplePatternTexture", "sampler2D"), l.stippleOffColorEnabled && e.fragment.uniforms.add("stippleOffColor", "vec4"), e.fragment.code.add(t.glsl(r || (r = p(["\n float getStippleAlpha() {\n float stipplePatternUvClamped = stipplePatternUv * gl_FragCoord.w;\n ", "\n\n return texture2D(stipplePatternTexture, vec2(mod(stipplePatternUvClamped, 1.0), 0.5)).a;\n }"], ["\n float getStippleAlpha() {\n float stipplePatternUvClamped = stipplePatternUv * gl_FragCoord.w;\n ", "\n\n return texture2D(stipplePatternTexture, vec2(mod(stipplePatternUvClamped, 1.0), 0.5)).a;\n }"])), l.stippleUVMaxEnabled ? "stipplePatternUvClamped = clamp(stipplePatternUvClamped, 0.0, stipplePatternUvMax);" : "")), l.stippleOffColorEnabled ? e.fragment.code.add(t.glsl(d || (d = p(["\n #define discardByStippleAlpha(stippleAlpha, threshold) {}\n #define blendStipple(color, stippleAlpha) mix(color, stippleOffColor, stippleAlpha)\n "], ["\n #define discardByStippleAlpha(stippleAlpha, threshold) {}\n #define blendStipple(color, stippleAlpha) mix(color, stippleOffColor, stippleAlpha)\n "])))) : e.fragment.code.add(t.glsl(o || (o = p(["\n #define discardByStippleAlpha(stippleAlpha, threshold) if (stippleAlpha < threshold) { discard; }\n #define blendStipple(color, stippleAlpha) vec4(color.rgb, color.a * stippleAlpha)\n "], ["\n #define discardByStippleAlpha(stippleAlpha, threshold) if (stippleAlpha < threshold) { discard; }\n #define blendStipple(color, stippleAlpha) vec4(color.rgb, color.a * stippleAlpha)\n "]))));
}
function i(e) {
e.fragment.code.add(t.glsl(s || (s = p(["\n float getStippleAlpha() { return 1.0; }\n\n #define discardByStippleAlpha(_stippleAlpha_, _threshold_) {}\n #define blendStipple(color, _stippleAlpha_) color\n "], ["\n float getStippleAlpha() { return 1.0; }\n\n #define discardByStippleAlpha(_stippleAlpha_, _threshold_) {}\n #define blendStipple(color, _stippleAlpha_) color\n "]))));
}
Object.defineProperty(l, "__esModule", {
value: !0
}), l.LineStipple = a;
var r, d, o, s;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/NormalUtils.glsl.js":
/*!*********************************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/NormalUtils.glsl.js ***!
\*********************************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineCoreShaderLibraryShadingNormalUtilsGlslJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../../core/tsSupport/makeTemplateObjectHelper */
"./node_modules/arcgis-js-api/core/tsSupport/makeTemplateObjectHelper.js"), __webpack_require__(
/*! ../../shaderModules/interfaces */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/interfaces.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, n, t, r) {
function c(e, n) {
0 === n.viewingMode ? e.vertex.code.add(r.glsl(i || (i = t(["\n vec3 getLocalUp(in vec3 pos, in vec3 origin) {\n return normalize(pos + origin);\n }\n "], ["\n vec3 getLocalUp(in vec3 pos, in vec3 origin) {\n return normalize(pos + origin);\n }\n "])))) : e.vertex.code.add(r.glsl(o || (o = t(["\n vec3 getLocalUp(in vec3 pos, in vec3 origin) {\n return vec3(0.0, 0.0, 1.0); // WARNING: up-axis dependent code\n }\n "], ["\n vec3 getLocalUp(in vec3 pos, in vec3 origin) {\n return vec3(0.0, 0.0, 1.0); // WARNING: up-axis dependent code\n }\n "])))), 0 === n.viewingMode ? e.vertex.code.add(r.glsl(v || (v = t(["\n mat3 getTBNMatrix(in vec3 n) {\n vec3 t = normalize(cross(vec3(0.0, 0.0, 1.0), n));\n vec3 b = normalize(cross(n, t));\n return mat3(t, b, n);\n }\n "], ["\n mat3 getTBNMatrix(in vec3 n) {\n vec3 t = normalize(cross(vec3(0.0, 0.0, 1.0), n));\n vec3 b = normalize(cross(n, t));\n return mat3(t, b, n);\n }\n "])))) : e.vertex.code.add(r.glsl(a || (a = t(["\n mat3 getTBNMatrix(in vec3 n) {\n vec3 t = vec3(1.0, 0.0, 0.0);\n vec3 b = normalize(cross(n, t));\n return mat3(t, b, n);\n }\n "], ["\n mat3 getTBNMatrix(in vec3 n) {\n vec3 t = vec3(1.0, 0.0, 0.0);\n vec3 b = normalize(cross(n, t));\n return mat3(t, b, n);\n }\n "]))));
}
Object.defineProperty(n, "__esModule", {
value: !0
}), n.NormalUtils = c;
var i, o, v, a;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/Normals.glsl.js":
/*!*****************************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/Normals.glsl.js ***!
\*****************************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineCoreShaderLibraryShadingNormalsGlslJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../../core/tsSupport/makeTemplateObjectHelper */
"./node_modules/arcgis-js-api/core/tsSupport/makeTemplateObjectHelper.js"), __webpack_require__(
/*! ../../shaderModules/interfaces */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/interfaces.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (a, r, e, n) {
function m(a, r) {
var m = a.fragment;
m.code.add(n.glsl(o || (o = e(["\n struct ShadingNormalParameters {\n vec3 normalView;\n vec3 viewDirection;\n } shadingParams;\n "], ["\n struct ShadingNormalParameters {\n vec3 normalView;\n vec3 viewDirection;\n } shadingParams;\n "])))), 1 === r.doubleSidedMode ? m.code.add(n.glsl(i || (i = e(["\n vec3 shadingNormal(ShadingNormalParameters params) {\n return dot(params.normalView, params.viewDirection) > 0.0 ? normalize(-params.normalView) : normalize(params.normalView);\n }\n "], ["\n vec3 shadingNormal(ShadingNormalParameters params) {\n return dot(params.normalView, params.viewDirection) > 0.0 ? normalize(-params.normalView) : normalize(params.normalView);\n }\n "])))) : 2 === r.doubleSidedMode ? m.code.add(n.glsl(l || (l = e(["\n vec3 shadingNormal(ShadingNormalParameters params) {\n return gl_FrontFacing ? normalize(params.normalView) : normalize(-params.normalView);\n }\n "], ["\n vec3 shadingNormal(ShadingNormalParameters params) {\n return gl_FrontFacing ? normalize(params.normalView) : normalize(-params.normalView);\n }\n "])))) : m.code.add(n.glsl(s || (s = e(["\n vec3 shadingNormal(ShadingNormalParameters params) {\n return normalize(params.normalView);\n }\n "], ["\n vec3 shadingNormal(ShadingNormalParameters params) {\n return normalize(params.normalView);\n }\n "]))));
}
Object.defineProperty(r, "__esModule", {
value: !0
}), r.Normals = m;
var o, i, l, s;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/PhysicallyBasedRendering.glsl.js":
/*!**********************************************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/PhysicallyBasedRendering.glsl.js ***!
\**********************************************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineCoreShaderLibraryShadingPhysicallyBasedRenderingGlslJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../../core/tsSupport/makeTemplateObjectHelper */
"./node_modules/arcgis-js-api/core/tsSupport/makeTemplateObjectHelper.js"), __webpack_require__(
/*! ./AnalyticalSkyModel.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/AnalyticalSkyModel.glsl.js"), __webpack_require__(
/*! ./PiUtils.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/PiUtils.glsl.js"), __webpack_require__(
/*! ../../shaderModules/interfaces */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/interfaces.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, n, o, t, a, l) {
function r(e, n) {
var r = e.fragment.code;
e.include(a.PiUtils), n.usePBRforWater ? (r.add(l.glsl(i || (i = o(["\n struct PBRShadingWater\n {\n float NdotL; // cos angle between normal and light direction\n float NdotV; // cos angle between normal and view direction\n float NdotH; // cos angle between normal and half vector\n float VdotH; // cos angle between view direction and half vector\n float LdotH; // cos angle between light direction and half vector\n float VdotN; // cos angle between view direction and normal vector\n };\n\n float dtrExponent = ", ";\n "], ["\n struct PBRShadingWater\n {\n float NdotL; // cos angle between normal and light direction\n float NdotV; // cos angle between normal and view direction\n float NdotH; // cos angle between normal and half vector\n float VdotH; // cos angle between view direction and half vector\n float LdotH; // cos angle between light direction and half vector\n float VdotN; // cos angle between view direction and normal vector\n };\n\n float dtrExponent = ", ";\n "])), n.useCustomDTRExponentForWater ? "2.2" : "2.0")), r.add(l.glsl(c || (c = o(["\n vec3 fresnelReflection(float angle, vec3 f0, float f90) {\n return f0 + (f90 - f0) * pow(1.0 - angle, 5.0);\n }\n "], ["\n vec3 fresnelReflection(float angle, vec3 f0, float f90) {\n return f0 + (f90 - f0) * pow(1.0 - angle, 5.0);\n }\n "])))), r.add(l.glsl(d || (d = o(["\n float normalDistributionWater(float NdotH, float roughness)\n {\n float r2 = roughness * roughness;\n float NdotH2 = NdotH * NdotH;\n float denom = pow((NdotH2 * (r2 - 1.0) + 1.0), dtrExponent) * PI;\n return r2 / denom;\n }\n "], ["\n float normalDistributionWater(float NdotH, float roughness)\n {\n float r2 = roughness * roughness;\n float NdotH2 = NdotH * NdotH;\n float denom = pow((NdotH2 * (r2 - 1.0) + 1.0), dtrExponent) * PI;\n return r2 / denom;\n }\n "])))), r.add(l.glsl(s || (s = o(["\n float geometricOcclusionKelemen(float LoH)\n {\n return 0.25 / (LoH * LoH);\n }\n "], ["\n float geometricOcclusionKelemen(float LoH)\n {\n return 0.25 / (LoH * LoH);\n }\n "])))), r.add(l.glsl(f || (f = o(["\n vec3 brdfWater(in PBRShadingWater props, float roughness, vec3 F0, float F0Max)\n {\n vec3 F = fresnelReflection(props.VdotH, F0, F0Max);\n float D = normalDistributionWater(props.NdotH, roughness);\n float V = geometricOcclusionKelemen(props.LdotH);\n return (D * V) * F;\n }\n\n vec3 tonemapACES(const vec3 x) {\n return (x * (2.51 * x + 0.03)) / (x * (2.43 * x + 0.59) + 0.14);\n }\n "], ["\n vec3 brdfWater(in PBRShadingWater props, float roughness, vec3 F0, float F0Max)\n {\n vec3 F = fresnelReflection(props.VdotH, F0, F0Max);\n float D = normalDistributionWater(props.NdotH, roughness);\n float V = geometricOcclusionKelemen(props.LdotH);\n return (D * V) * F;\n }\n\n vec3 tonemapACES(const vec3 x) {\n return (x * (2.51 * x + 0.03)) / (x * (2.43 * x + 0.59) + 0.14);\n }\n "]))))) : n.usePBR && (e.include(t.AnalyticalSkyModel), r.add(l.glsl(u || (u = o(["\n struct PBRShadingInfo\n {\n float NdotL; // cos angle between normal and light direction\n float NdotV; // cos angle between normal and view direction\n float NdotH; // cos angle between normal and half vector\n float VdotH; // cos angle between view direction and half vector\n float LdotH; // cos angle between view light direction and half vector\n float NdotNG; // cos angle between normal and normal of the ground\n float RdotNG; // cos angle between view direction reflected of the normal and normal of the ground\n float NdotAmbDir; // cos angle between view direction and the fill light in ambient illumination\n float NdotH_Horizon; // cos angle between normal and half vector defined with horizon illumination\n vec3 skyRadianceToSurface; // integrated radiance of the sky based on the surface roughness (used for specular reflection)\n vec3 groundRadianceToSurface; // integrated radiance of the ground based on the surface roughness (used for specular reflection)\n vec3 skyIrradianceToSurface; // irradiance of the sky (used for diffuse reflection)\n vec3 groundIrradianceToSurface; // irradiance of the ground (used for diffuse reflection)\n\n float averageAmbientRadiance; // average ambient radiance used to deduce black level in gamut mapping\n float ssao; // ssao coefficient\n vec3 groundReflectance; // reflectance of the ground\n vec3 albedoLinear; // linear color of the albedo\n vec3 f0; // fresnel value at normal incident light\n vec3 f90; // fresnel value at 90o of incident light\n\n vec3 diffuseColor; // diffuse color of the material used in environment illumination\n float metalness; // metalness of the material\n float roughness; // roughness of the material\n };\n "], ["\n struct PBRShadingInfo\n {\n float NdotL; // cos angle between normal and light direction\n float NdotV; // cos angle between normal and view direction\n float NdotH; // cos angle between normal and half vector\n float VdotH; // cos angle between view direction and half vector\n float LdotH; // cos angle between view light direction and half vector\n float NdotNG; // cos angle between normal and normal of the ground\n float RdotNG; // cos angle between view direction reflected of the normal and normal of the ground\n float NdotAmbDir; // cos angle between view direction and the fill light in ambient illumination\n float NdotH_Horizon; // cos angle between normal and half vector defined with horizon illumination\n vec3 skyRadianceToSurface; // integrated radiance of the sky based on the surface roughness (used for specular reflection)\n vec3 groundRadianceToSurface; // integrated radiance of the ground based on the surface roughness (used for specular reflection)\n vec3 skyIrradianceToSurface; // irradiance of the sky (used for diffuse reflection)\n vec3 groundIrradianceToSurface; // irradiance of the ground (used for diffuse reflection)\n\n float averageAmbientRadiance; // average ambient radiance used to deduce black level in gamut mapping\n float ssao; // ssao coefficient\n vec3 groundReflectance; // reflectance of the ground\n vec3 albedoLinear; // linear color of the albedo\n vec3 f0; // fresnel value at normal incident light\n vec3 f90; // fresnel value at 90o of incident light\n\n vec3 diffuseColor; // diffuse color of the material used in environment illumination\n float metalness; // metalness of the material\n float roughness; // roughness of the material\n };\n "])))), r.add(l.glsl(g || (g = o(["\n const float fillLightIntensity = 0.25; // intensity of the directional ambient component\n const float horizonLightDiffusion = 0.4; // diffusion value describing the area and smoothness of the horizon light\n const vec3 skyTransmittance = vec3(0.9, 0.9, 1.0); // bluish transmittance of the sky\n const float additionalAmbientIrradianceFactor = 0.02;// Additional irradiance factor - making everything brighter and more colorful\n "], ["\n const float fillLightIntensity = 0.25; // intensity of the directional ambient component\n const float horizonLightDiffusion = 0.4; // diffusion value describing the area and smoothness of the horizon light\n const vec3 skyTransmittance = vec3(0.9, 0.9, 1.0); // bluish transmittance of the sky\n const float additionalAmbientIrradianceFactor = 0.02;// Additional irradiance factor - making everything brighter and more colorful\n "])))), r.add(l.glsl(h || (h = o(["\n float normalDistribution(float NdotH, float roughness)\n {\n float a = NdotH * roughness;\n float b = roughness / (1.0 - NdotH * NdotH + a * a);\n return b * b * INV_PI;\n }\n "], ["\n float normalDistribution(float NdotH, float roughness)\n {\n float a = NdotH * roughness;\n float b = roughness / (1.0 - NdotH * NdotH + a * a);\n return b * b * INV_PI;\n }\n "])))), r.add(l.glsl(m || (m = o(["\n const vec4 c0 = vec4(-1.0, -0.0275, -0.572, 0.022);\n const vec4 c1 = vec4( 1.0, 0.0425, 1.040, -0.040);\n const vec2 c2 = vec2(-1.04, 1.04);\n\n vec2 prefilteredDFGAnalytical(float roughness, float NdotV) {\n vec4 r = roughness * c0 + c1;\n float a004 = min(r.x * r.x, exp2(-9.28 * NdotV)) * r.x + r.y;\n return c2 * a004 + r.zw;\n }\n "], ["\n const vec4 c0 = vec4(-1.0, -0.0275, -0.572, 0.022);\n const vec4 c1 = vec4( 1.0, 0.0425, 1.040, -0.040);\n const vec2 c2 = vec2(-1.04, 1.04);\n\n vec2 prefilteredDFGAnalytical(float roughness, float NdotV) {\n vec4 r = roughness * c0 + c1;\n float a004 = min(r.x * r.x, exp2(-9.28 * NdotV)) * r.x + r.y;\n return c2 * a004 + r.zw;\n }\n "])))), r.add(l.glsl(p || (p = o(["\n vec3 evaluateEnvironmentIllumination(PBRShadingInfo inputs) {\n vec3 indirectDiffuse = evaluateDiffuseIlluminationHemisphere(inputs.groundIrradianceToSurface, inputs.skyIrradianceToSurface, inputs.NdotNG);\n vec3 indirectSpecular = evaluateSpecularIlluminationHemisphere(inputs.groundRadianceToSurface, inputs.skyRadianceToSurface, inputs.RdotNG, inputs.roughness);\n\n // From diffuse illumination calculate reflected color\n vec3 diffuseComponent = inputs.diffuseColor * indirectDiffuse * INV_PI;\n\n // From specular illumination calculate reflected color\n vec2 dfg = prefilteredDFGAnalytical(inputs.roughness, inputs.NdotV);\n vec3 specularColor = inputs.f0 * dfg.x + inputs.f90 * dfg.y;\n vec3 specularComponent = specularColor * indirectSpecular;\n\n return (diffuseComponent + specularComponent);\n }\n "], ["\n vec3 evaluateEnvironmentIllumination(PBRShadingInfo inputs) {\n vec3 indirectDiffuse = evaluateDiffuseIlluminationHemisphere(inputs.groundIrradianceToSurface, inputs.skyIrradianceToSurface, inputs.NdotNG);\n vec3 indirectSpecular = evaluateSpecularIlluminationHemisphere(inputs.groundRadianceToSurface, inputs.skyRadianceToSurface, inputs.RdotNG, inputs.roughness);\n\n // From diffuse illumination calculate reflected color\n vec3 diffuseComponent = inputs.diffuseColor * indirectDiffuse * INV_PI;\n\n // From specular illumination calculate reflected color\n vec2 dfg = prefilteredDFGAnalytical(inputs.roughness, inputs.NdotV);\n vec3 specularColor = inputs.f0 * dfg.x + inputs.f90 * dfg.y;\n vec3 specularComponent = specularColor * indirectSpecular;\n\n return (diffuseComponent + specularComponent);\n }\n "])))), r.add(l.glsl(v || (v = o(["\n float gamutMapChanel(float x, vec2 p){\n return (x < p.x) ? mix(0.0, p.y, x/p.x) : mix(p.y, 1.0, (x - p.x) / (1.0 - p.x) );\n }\n\n // Because of the fresnel refletion the image might be too bright we apply black level soft compression gamut mapping\n vec3 blackLevelSoftCompression(vec3 inColor, PBRShadingInfo inputs){\n vec3 outColor;\n // based on the average ambient radiance we approximate the black level for a specific time of a day\n // p.x - the deduced black level\n // p.y - the value to which we map the black level (around 1/3 of the black level)\n vec2 p = vec2(0.02 * (inputs.averageAmbientRadiance), 0.0075 * (inputs.averageAmbientRadiance));\n // gamut map individual color changels\n outColor.x = gamutMapChanel(inColor.x, p) ;\n outColor.y = gamutMapChanel(inColor.y, p) ;\n outColor.z = gamutMapChanel(inColor.z, p) ;\n\n return outColor;\n }\n "], ["\n float gamutMapChanel(float x, vec2 p){\n return (x < p.x) ? mix(0.0, p.y, x/p.x) : mix(p.y, 1.0, (x - p.x) / (1.0 - p.x) );\n }\n\n // Because of the fresnel refletion the image might be too bright we apply black level soft compression gamut mapping\n vec3 blackLevelSoftCompression(vec3 inColor, PBRShadingInfo inputs){\n vec3 outColor;\n // based on the average ambient radiance we approximate the black level for a specific time of a day\n // p.x - the deduced black level\n // p.y - the value to which we map the black level (around 1/3 of the black level)\n vec2 p = vec2(0.02 * (inputs.averageAmbientRadiance), 0.0075 * (inputs.averageAmbientRadiance));\n // gamut map individual color changels\n outColor.x = gamutMapChanel(inColor.x, p) ;\n outColor.y = gamutMapChanel(inColor.y, p) ;\n outColor.z = gamutMapChanel(inColor.z, p) ;\n\n return outColor;\n }\n "])))));
}
Object.defineProperty(n, "__esModule", {
value: !0
}), n.PhysicallyBasedRendering = r;
var i, c, d, s, f, u, g, h, m, p, v;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/PhysicallyBasedRenderingParameters.glsl.js":
/*!********************************************************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/PhysicallyBasedRenderingParameters.glsl.js ***!
\********************************************************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineCoreShaderLibraryShadingPhysicallyBasedRenderingParametersGlslJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../../core/tsSupport/makeTemplateObjectHelper */
"./node_modules/arcgis-js-api/core/tsSupport/makeTemplateObjectHelper.js"), __webpack_require__(
/*! ../attributes/VertexTextureCoordinates.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/attributes/VertexTextureCoordinates.glsl.js"), __webpack_require__(
/*! ../../shaderModules/interfaces */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/interfaces.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, s, n, o, t) {
function a(e, s) {
var a = e.fragment,
p = s.hasMetalnessAndRoughnessTexture || s.hasEmissionTexture || s.hasOcclusionTexture;
s.usePBR && p && e.include(o.VertexTextureCoordinates, s), s.usePBR && (a.uniforms.add("roughnessFactor", "float"), a.uniforms.add("metalnessFactor", "float"), a.uniforms.add("emissionFactor", "vec3"), a.uniforms.add("reflectanceFactor", "float"), a.code.add(t.glsl(r || (r = n(["\n float reflectance;\n float roughness;\n float metalness;\n vec3 emission;\n float occlusion;\n "], ["\n float reflectance;\n float roughness;\n float metalness;\n vec3 emission;\n float occlusion;\n "])))), s.hasMetalnessAndRoughnessTexture && (a.uniforms.add("texMetallicRoughness", "sampler2D"), s.supportsTextureAtlas && a.uniforms.add("texMetallicRoughnessSize", "vec2"), a.code.add(t.glsl(l || (l = n(["\n void applyMetallnessAndRoughness(TextureLookupParameter params) {\n vec3 metallicRoughness = textureLookup(texMetallicRoughness, params).rgb;\n\n roughness *= metallicRoughness.g;\n metalness *= metallicRoughness.b;\n }\n "], ["\n void applyMetallnessAndRoughness(TextureLookupParameter params) {\n vec3 metallicRoughness = textureLookup(texMetallicRoughness, params).rgb;\n\n roughness *= metallicRoughness.g;\n metalness *= metallicRoughness.b;\n }\n "]))))), s.hasEmissionTexture && (a.uniforms.add("texEmission", "sampler2D"), s.supportsTextureAtlas && a.uniforms.add("texEmissionSize", "vec2"), a.code.add(t.glsl(c || (c = n(["\n void applyEmission(TextureLookupParameter params) {\n emission *= textureLookup(texEmission, params).rgb;\n }\n "], ["\n void applyEmission(TextureLookupParameter params) {\n emission *= textureLookup(texEmission, params).rgb;\n }\n "])))))), s.usePBR && s.hasOcclusionTexture ? (a.uniforms.add("texOcclusion", "sampler2D"), s.supportsTextureAtlas && a.uniforms.add("texOcclusionSize", "vec2"), a.code.add(t.glsl(i || (i = n(["\n void applyOcclusion(TextureLookupParameter params) {\n occlusion *= textureLookup(texOcclusion, params).r;\n }\n\n float getBakedOcclusion() {\n return occlusion;\n }\n "], ["\n void applyOcclusion(TextureLookupParameter params) {\n occlusion *= textureLookup(texOcclusion, params).r;\n }\n\n float getBakedOcclusion() {\n return occlusion;\n }\n "]))))) : a.code.add(t.glsl(u || (u = n(["\n float getBakedOcclusion() { return 1.0; }\n "], ["\n float getBakedOcclusion() { return 1.0; }\n "])))), s.usePBR && a.code.add(t.glsl(m || (m = n(["\n void applyPBRFactors() {\n reflectance = reflectanceFactor;\n roughness = roughnessFactor;\n metalness = metalnessFactor;\n emission = emissionFactor;\n occlusion = 1.0;\n ", "\n ", "\n ", "\n ", "\n }\n "], ["\n void applyPBRFactors() {\n reflectance = reflectanceFactor;\n roughness = roughnessFactor;\n metalness = metalnessFactor;\n emission = emissionFactor;\n occlusion = 1.0;\n ", "\n ", "\n ", "\n ", "\n }\n "])), p ? "vtc.uv = vuv0;" : "", s.hasMetalnessAndRoughnessTexture ? s.supportsTextureAtlas ? "vtc.size = texMetallicRoughnessSize; applyMetallnessAndRoughness(vtc);" : "applyMetallnessAndRoughness(vtc);" : "", s.hasEmissionTexture ? s.supportsTextureAtlas ? "vtc.size = texEmissionSize; applyEmission(vtc);" : "applyEmission(vtc);" : "", s.hasOcclusionTexture ? s.supportsTextureAtlas ? "vtc.size = texOcclusionSize; applyOcclusion(vtc);" : "applyOcclusion(vtc);" : ""));
}
Object.defineProperty(s, "__esModule", {
value: !0
}), s.PhysicallyBasedRenderingParameters = a, function (e) {
function s(e, s) {
e.setUniform1f("metalnessFactor", s.metallicFactor), e.setUniform1f("roughnessFactor", s.roughnessFactor), e.setUniform3fv("emissionFactor", s.emissiveFactor), e.setUniform1f("reflectanceFactor", s.reflectanceFactor);
}
e.bindUniforms = s;
}(a = s.PhysicallyBasedRenderingParameters || (s.PhysicallyBasedRenderingParameters = {}));
var r, l, c, i, u, m;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/PiUtils.glsl.js":
/*!*****************************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/PiUtils.glsl.js ***!
\*****************************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineCoreShaderLibraryShadingPiUtilsGlslJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../../core/tsSupport/makeTemplateObjectHelper */
"./node_modules/arcgis-js-api/core/tsSupport/makeTemplateObjectHelper.js"), __webpack_require__(
/*! ../../shaderModules/interfaces */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/interfaces.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (t, n, o, e) {
function l(t) {
t.vertex.code.add(e.glsl(a || (a = o(["\n const float PI = 3.141592653589793;\n "], ["\n const float PI = 3.141592653589793;\n "])))), t.fragment.code.add(e.glsl(s || (s = o(["\n const float PI = 3.141592653589793;\n const float LIGHT_NORMALIZATION = 1.0 / PI;\n const float INV_PI = 0.3183098861837907;\n const float HALF_PI = 1.570796326794897;\n "], ["\n const float PI = 3.141592653589793;\n const float LIGHT_NORMALIZATION = 1.0 / PI;\n const float INV_PI = 0.3183098861837907;\n const float HALF_PI = 1.570796326794897;\n "]))));
}
Object.defineProperty(n, "__esModule", {
value: !0
}), n.PiUtils = l;
var a, s;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/ReadShadowMap.glsl.js":
/*!***********************************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/ReadShadowMap.glsl.js ***!
\***********************************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineCoreShaderLibraryShadingReadShadowMapGlslJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../../core/tsSupport/makeTemplateObjectHelper */
"./node_modules/arcgis-js-api/core/tsSupport/makeTemplateObjectHelper.js"), __webpack_require__(
/*! ../util/RgbaFloatEncoding.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/util/RgbaFloatEncoding.glsl.js"), __webpack_require__(
/*! ../../shaderModules/interfaces */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/interfaces.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, a, t, l, i) {
function n(e) {
e.include(l.RgbaFloatEncoding), e.fragment.uniforms.add("depthTex", "sampler2D"), e.fragment.uniforms.add("shadowMapNum", "int"), e.fragment.uniforms.add("shadowMapDistance", "vec4"), e.fragment.uniforms.add("shadowMapMatrix", "mat4", 4), e.fragment.uniforms.add("depthHalfPixelSz", "float"), e.fragment.code.add(i.glsl(o || (o = t(["\n float readShadowMap(const in vec3 _vpos, float _linearDepth) {\n float halfPixelSize = depthHalfPixelSz;\n vec4 distance = shadowMapDistance;\n float depth = _linearDepth;\n\n //choose correct cascade\n int i = depth < distance[1] ? 0 : depth < distance[2] ? 1 : depth < distance[3] ? 2 : 3;\n\n if (i >= shadowMapNum) { return 0.0; }\n\n mat4 mat = i == 0 ? shadowMapMatrix[0] : i == 1 ? shadowMapMatrix[1] : i == 2 ? shadowMapMatrix[2] : shadowMapMatrix[3];\n\n vec4 lv = mat * vec4(_vpos, 1.0);\n lv.xy /= lv.w;\n\n // vertex completely outside? -> no shadow\n vec3 lvpos = 0.5 * lv.xyz + vec3(0.5);\n if (lvpos.z >= 1.0) { return 0.0; }\n if (lvpos.x < 0.0 || lvpos.x > 1.0 || lvpos.y < 0.0 || lvpos.y > 1.0) { return 0.0; }\n\n // calc coord in cascade texture\n vec2 uv = vec2(float(i - 2 * (i / 2)) * 0.5, float(i / 2) * 0.5) + 0.5 * lvpos.xy;\n\n float texSize = 0.5 / halfPixelSize;\n\n // filter, offset by half pixels\n vec2 st = fract((vec2(halfPixelSize) + uv) * texSize);\n\n float s00 = rgba2float(texture2D(depthTex, uv + vec2(-halfPixelSize, -halfPixelSize))) < lvpos.z ? 1.0 : 0.0;\n float s10 = rgba2float(texture2D(depthTex, uv + vec2(halfPixelSize, -halfPixelSize))) < lvpos.z ? 1.0 : 0.0;\n float s11 = rgba2float(texture2D(depthTex, uv + vec2(halfPixelSize, halfPixelSize))) < lvpos.z ? 1.0 : 0.0;\n float s01 = rgba2float(texture2D(depthTex, uv + vec2(-halfPixelSize, halfPixelSize))) < lvpos.z ? 1.0 : 0.0;\n\n return mix(mix(s00, s10, st.x), mix(s01, s11, st.x), st.y);\n }\n "], ["\n float readShadowMap(const in vec3 _vpos, float _linearDepth) {\n float halfPixelSize = depthHalfPixelSz;\n vec4 distance = shadowMapDistance;\n float depth = _linearDepth;\n\n //choose correct cascade\n int i = depth < distance[1] ? 0 : depth < distance[2] ? 1 : depth < distance[3] ? 2 : 3;\n\n if (i >= shadowMapNum) { return 0.0; }\n\n mat4 mat = i == 0 ? shadowMapMatrix[0] : i == 1 ? shadowMapMatrix[1] : i == 2 ? shadowMapMatrix[2] : shadowMapMatrix[3];\n\n vec4 lv = mat * vec4(_vpos, 1.0);\n lv.xy /= lv.w;\n\n // vertex completely outside? -> no shadow\n vec3 lvpos = 0.5 * lv.xyz + vec3(0.5);\n if (lvpos.z >= 1.0) { return 0.0; }\n if (lvpos.x < 0.0 || lvpos.x > 1.0 || lvpos.y < 0.0 || lvpos.y > 1.0) { return 0.0; }\n\n // calc coord in cascade texture\n vec2 uv = vec2(float(i - 2 * (i / 2)) * 0.5, float(i / 2) * 0.5) + 0.5 * lvpos.xy;\n\n float texSize = 0.5 / halfPixelSize;\n\n // filter, offset by half pixels\n vec2 st = fract((vec2(halfPixelSize) + uv) * texSize);\n\n float s00 = rgba2float(texture2D(depthTex, uv + vec2(-halfPixelSize, -halfPixelSize))) < lvpos.z ? 1.0 : 0.0;\n float s10 = rgba2float(texture2D(depthTex, uv + vec2(halfPixelSize, -halfPixelSize))) < lvpos.z ? 1.0 : 0.0;\n float s11 = rgba2float(texture2D(depthTex, uv + vec2(halfPixelSize, halfPixelSize))) < lvpos.z ? 1.0 : 0.0;\n float s01 = rgba2float(texture2D(depthTex, uv + vec2(-halfPixelSize, halfPixelSize))) < lvpos.z ? 1.0 : 0.0;\n\n return mix(mix(s00, s10, st.x), mix(s01, s11, st.x), st.y);\n }\n "]))));
}
Object.defineProperty(a, "__esModule", {
value: !0
}), a.ReadShadowMap = n, function (e) {
function a(e, a) {
a.shadowMappingEnabled && a.shadowMap.bindView(e, a.origin);
}
e.bindUniforms = a;
}(n = a.ReadShadowMap || (a.ReadShadowMap = {}));
var o;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/VisualVariables.glsl.js":
/*!*************************************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/VisualVariables.glsl.js ***!
\*************************************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineCoreShaderLibraryShadingVisualVariablesGlslJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../../core/tsSupport/makeTemplateObjectHelper */
"./node_modules/arcgis-js-api/core/tsSupport/makeTemplateObjectHelper.js"), __webpack_require__(
/*! ../../shaderModules/interfaces */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/interfaces.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, v, o, n) {
function r(e, v) {
(v.vvSize || v.vvColor) && e.attributes.add("instanceFeatureAttribute", "vec4"), v.vvSize ? (e.vertex.uniforms.add("vvSizeMinSize", "vec3"), e.vertex.uniforms.add("vvSizeMaxSize", "vec3"), e.vertex.uniforms.add("vvSizeOffset", "vec3"), e.vertex.uniforms.add("vvSizeFactor", "vec3"), e.vertex.uniforms.add("vvSymbolRotationMatrix", "mat3"), e.vertex.uniforms.add("vvSymbolAnchor", "vec3"), e.vertex.code.add(n.glsl(t || (t = o(["\n vec4 vvTransformPosition(vec3 position, vec4 _featureAttribute) {\n vec3 vvScale = clamp(vvSizeOffset + _featureAttribute.x * vvSizeFactor, vvSizeMinSize, vvSizeMaxSize);\n return vec4(vvSymbolRotationMatrix * (vvScale * (position + vvSymbolAnchor)), 1.0);\n }\n "], ["\n vec4 vvTransformPosition(vec3 position, vec4 _featureAttribute) {\n vec3 vvScale = clamp(vvSizeOffset + _featureAttribute.x * vvSizeFactor, vvSizeMinSize, vvSizeMaxSize);\n return vec4(vvSymbolRotationMatrix * (vvScale * (position + vvSymbolAnchor)), 1.0);\n }\n "])))), e.vertex.code.add(n.glsl(i || (i = o(["\n const float eps = 1.192092896e-07;\n vec4 vvTransformNormal(vec3 _normal, vec4 _featureAttribute) {\n vec3 vvScale = clamp(vvSizeOffset + _featureAttribute.x * vvSizeFactor, vvSizeMinSize + eps, vvSizeMaxSize);\n return vec4(vvSymbolRotationMatrix * _normal / vvScale, 1.0);\n }\n\n vec4 vvLocalNormal(vec3 _normal) {\n return vvTransformNormal(_normal, instanceFeatureAttribute);\n }\n\n vec4 localPosition() {\n return vvTransformPosition(position, instanceFeatureAttribute);\n }\n "], ["\n const float eps = 1.192092896e-07;\n vec4 vvTransformNormal(vec3 _normal, vec4 _featureAttribute) {\n vec3 vvScale = clamp(vvSizeOffset + _featureAttribute.x * vvSizeFactor, vvSizeMinSize + eps, vvSizeMaxSize);\n return vec4(vvSymbolRotationMatrix * _normal / vvScale, 1.0);\n }\n\n vec4 vvLocalNormal(vec3 _normal) {\n return vvTransformNormal(_normal, instanceFeatureAttribute);\n }\n\n vec4 localPosition() {\n return vvTransformPosition(position, instanceFeatureAttribute);\n }\n "]))))) : e.vertex.code.add(n.glsl(a || (a = o(["\n vec4 localPosition() { return vec4(position, 1.0); }\n\n vec4 vvLocalNormal(vec3 _normal) { return vec4(_normal, 1.0); }\n "], ["\n vec4 localPosition() { return vec4(position, 1.0); }\n\n vec4 vvLocalNormal(vec3 _normal) { return vec4(_normal, 1.0); }\n "])))), v.vvColor ? (e.vertex.defines.addInt("VV_COLOR_N", 8), e.vertex.code.add(n.glsl(l || (l = o(["\n uniform float vvColorValues[VV_COLOR_N];\n uniform vec4 vvColorColors[VV_COLOR_N];\n\n vec4 vvGetColor(vec4 featureAttribute, float values[VV_COLOR_N], vec4 colors[VV_COLOR_N]) {\n float value = featureAttribute.y;\n if (value <= values[0]) {\n return colors[0];\n }\n\n for (int i = 1; i < VV_COLOR_N; ++i) {\n if (values[i] >= value) {\n float f = (value - values[i-1]) / (values[i] - values[i-1]);\n return mix(colors[i-1], colors[i], f);\n }\n }\n return colors[VV_COLOR_N - 1];\n }\n\n vec4 vvColor() {\n return vvGetColor(instanceFeatureAttribute, vvColorValues, vvColorColors);\n }\n "], ["\n uniform float vvColorValues[VV_COLOR_N];\n uniform vec4 vvColorColors[VV_COLOR_N];\n\n vec4 vvGetColor(vec4 featureAttribute, float values[VV_COLOR_N], vec4 colors[VV_COLOR_N]) {\n float value = featureAttribute.y;\n if (value <= values[0]) {\n return colors[0];\n }\n\n for (int i = 1; i < VV_COLOR_N; ++i) {\n if (values[i] >= value) {\n float f = (value - values[i-1]) / (values[i] - values[i-1]);\n return mix(colors[i-1], colors[i], f);\n }\n }\n return colors[VV_COLOR_N - 1];\n }\n\n vec4 vvColor() {\n return vvGetColor(instanceFeatureAttribute, vvColorValues, vvColorColors);\n }\n "]))))) : e.vertex.code.add(n.glsl(c || (c = o(["\n vec4 vvColor() { return vec4(1.0); }\n "], ["\n vec4 vvColor() { return vec4(1.0); }\n "]))));
}
Object.defineProperty(v, "__esModule", {
value: !0
}), v.VisualVariables = r, function (e) {
function v(e, v) {
v.vvSizeEnabled && (e.setUniform3fv("vvSizeMinSize", v.vvSizeMinSize), e.setUniform3fv("vvSizeMaxSize", v.vvSizeMaxSize), e.setUniform3fv("vvSizeOffset", v.vvSizeOffset), e.setUniform3fv("vvSizeFactor", v.vvSizeFactor)), v.vvColorEnabled && (e.setUniform1fv("vvColorValues", v.vvColorValues), e.setUniform4fv("vvColorColors", v.vvColorColors));
}
function o(e, o) {
v(e, o), o.vvOpacityEnabled && (e.setUniform1fv("vvOpacityValues", o.vvOpacityValues), e.setUniform1fv("vvOpacityOpacities", o.vvOpacityOpacities));
}
function n(e, o) {
v(e, o), o.vvSizeEnabled && (e.setUniform3fv("vvSymbolAnchor", o.vvSymbolAnchor), e.setUniformMatrix3fv("vvSymbolRotationMatrix", o.vvSymbolRotationMatrix));
}
e.bindUniformsWithOpacity = o, e.bindUniformsForSymbols = n;
}(r = v.VisualVariables || (v.VisualVariables = {}));
var t, i, a, l, c;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/Water.glsl.js":
/*!***************************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/Water.glsl.js ***!
\***************************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineCoreShaderLibraryShadingWaterGlslJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../../core/tsSupport/makeTemplateObjectHelper */
"./node_modules/arcgis-js-api/core/tsSupport/makeTemplateObjectHelper.js"), __webpack_require__(
/*! ./Gamma.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/Gamma.glsl.js"), __webpack_require__(
/*! ./PhysicallyBasedRendering.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/PhysicallyBasedRendering.glsl.js"), __webpack_require__(
/*! ../../shaderModules/interfaces */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/interfaces.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, n, o, t, r, a) {
function i(e, n) {
e.include(r.PhysicallyBasedRendering, n), e.include(t.Gamma), e.fragment.code.add(a.glsl(s || (s = o(["\n const vec3 fresnelSky = vec3(0.02, 1.0, 5.0); // f0, f0max, exp\n const vec2 fresnelMaterial = vec2(0.02, 0.1); // f0, f0max for specular term\n const float roughness = 0.06;\n\n const vec3 skyZenitColor = vec3(0, 0.6, 0.9);\n const vec3 skyColor = vec3(0.72, 0.92, 1.0);\n\n PBRShadingWater shadingInfo;\n\n /*\n * This function is an approximation for the sky gradient reflected\n * the water surface and describes a combination of two fresnel terms.\n * @parameter: cosTheta = is the result of max(dot(n,v), 0.0)\n * @parameter: horizon = the dominant color of the sky horizon\n * @parameter: cosTheta = the dominant color of the sky zenit\n */\n vec3 getSkyGradientColor(in float cosTheta, in vec3 horizon, in vec3 zenit) {\n float exponent = pow((1.0 - cosTheta), fresnelSky[2]);\n return mix(zenit, horizon, exponent);\n }\n\n /*\n * This function determines the water color per pixel.\n * @parameter: n = normal facing away from the surface\n * @parameter: v = view direction facing away from the surface.\n * @parameter: l = light direction facing away from the surface\n * @parameter: lightIntensity = light intensity, currently between 0...PI\n * @parameter: localUp = a normal for the general direction of the surface\n * @parameter: shadow = the amount of shadow at this pixel (0 = no shadow)\n */\n vec3 getSeaColor(in vec3 n, in vec3 v, in vec3 l, vec3 color, in vec3 lightIntensity, in vec3 localUp, in float shadow) {\n\n vec3 seaWaterColor = linearizeGamma(color);\n // using half vector to determine the specular light\n vec3 h = normalize(l + v);\n shadingInfo.NdotL = clamp(dot(n, l), 0.0, 1.0);\n shadingInfo.NdotV = clamp(dot(n, v), 0.001, 1.0);\n shadingInfo.VdotN = clamp(dot(v, n), 0.001, 1.0);\n shadingInfo.NdotH = clamp(dot(n, h), 0.0, 1.0);\n shadingInfo.VdotH = clamp(dot(v, h), 0.0, 1.0);\n shadingInfo.LdotH = clamp(dot(l, h), 0.0, 1.0);\n\n // angle between vertex normal and view direction\n float upDotV = max(dot(localUp,v), 0.0);\n // reflected sky color: the reflected sky color consists of two main colors, the\n // reflected color at the horizon and the reflected color of the zenit.\n // the reflected sky color is then an approximation based on the fresnel term.\n vec3 skyHorizon = linearizeGamma(skyColor);\n vec3 skyZenit = linearizeGamma(skyZenitColor);\n vec3 skyColor = getSkyGradientColor(upDotV, skyHorizon, skyZenit );\n\n // we use the upDotL to smoothen out the\n // reflected color of the water\n float upDotL = max(dot(localUp,l),0.0);\n\n // The approximated sky color is adjusted according to the sun position.\n // This is done as approximation for e.g. night views.\n skyColor *= 0.1 + upDotL * 0.9;\n\n // If a water surface is in shadow we just use a slight darkening of the\n // water surface expressed with this shadowModifier.\n float shadowModifier = clamp(shadow, 0.8, 1.0);\n\n // The reflected sky color consists of the fresnel reflection multiplied with the approximated sky color.\n // The shadow is influencing the frensel term to keep the shadow impression for really near views. As long\n // as reflection are absent there is a need to have a slight shadow for depth perception.\n vec3 reflSky = fresnelReflection(shadingInfo.VdotN, vec3(fresnelSky[0]), fresnelSky[1]) * skyColor * shadowModifier;\n\n // The reflected sea color is the input water color combined with the reflected sky color.\n // The reflected sky color is modified by the incoming light.\n vec3 reflSea = seaWaterColor * mix(skyColor, upDotL * lightIntensity * LIGHT_NORMALIZATION, 2.0 / 3.0) * shadowModifier;\n\n vec3 specular = vec3(0.0);\n // This prevents the specular light to be rendered when:\n // - sun is behind a polygon (e.g. sundown for elevated polygons where nDotL might be still ok)\n // - viewer is under water (for this localUp is better than n)\n if(upDotV > 0.0 && upDotL > 0.0) {\n // calculate the cook torrance BRDF but with simplified occlusion\n vec3 specularSun = brdfWater(shadingInfo, roughness, vec3(fresnelMaterial[0]), fresnelMaterial[1]);\n // Normalize light intensity to be between 0...1. Shadow cancels out specular light here\n vec3 incidentLight = lightIntensity * LIGHT_NORMALIZATION * shadow;\n\n specular = shadingInfo.NdotL * incidentLight * specularSun;\n }\n // combining reflected sky, reflected sea and specular highlight.\n return tonemapACES(reflSky + reflSea + specular);\n }\n "], ["\n const vec3 fresnelSky = vec3(0.02, 1.0, 5.0); // f0, f0max, exp\n const vec2 fresnelMaterial = vec2(0.02, 0.1); // f0, f0max for specular term\n const float roughness = 0.06;\n\n const vec3 skyZenitColor = vec3(0, 0.6, 0.9);\n const vec3 skyColor = vec3(0.72, 0.92, 1.0);\n\n PBRShadingWater shadingInfo;\n\n /*\n * This function is an approximation for the sky gradient reflected\n * the water surface and describes a combination of two fresnel terms.\n * @parameter: cosTheta = is the result of max(dot(n,v), 0.0)\n * @parameter: horizon = the dominant color of the sky horizon\n * @parameter: cosTheta = the dominant color of the sky zenit\n */\n vec3 getSkyGradientColor(in float cosTheta, in vec3 horizon, in vec3 zenit) {\n float exponent = pow((1.0 - cosTheta), fresnelSky[2]);\n return mix(zenit, horizon, exponent);\n }\n\n /*\n * This function determines the water color per pixel.\n * @parameter: n = normal facing away from the surface\n * @parameter: v = view direction facing away from the surface.\n * @parameter: l = light direction facing away from the surface\n * @parameter: lightIntensity = light intensity, currently between 0...PI\n * @parameter: localUp = a normal for the general direction of the surface\n * @parameter: shadow = the amount of shadow at this pixel (0 = no shadow)\n */\n vec3 getSeaColor(in vec3 n, in vec3 v, in vec3 l, vec3 color, in vec3 lightIntensity, in vec3 localUp, in float shadow) {\n\n vec3 seaWaterColor = linearizeGamma(color);\n // using half vector to determine the specular light\n vec3 h = normalize(l + v);\n shadingInfo.NdotL = clamp(dot(n, l), 0.0, 1.0);\n shadingInfo.NdotV = clamp(dot(n, v), 0.001, 1.0);\n shadingInfo.VdotN = clamp(dot(v, n), 0.001, 1.0);\n shadingInfo.NdotH = clamp(dot(n, h), 0.0, 1.0);\n shadingInfo.VdotH = clamp(dot(v, h), 0.0, 1.0);\n shadingInfo.LdotH = clamp(dot(l, h), 0.0, 1.0);\n\n // angle between vertex normal and view direction\n float upDotV = max(dot(localUp,v), 0.0);\n // reflected sky color: the reflected sky color consists of two main colors, the\n // reflected color at the horizon and the reflected color of the zenit.\n // the reflected sky color is then an approximation based on the fresnel term.\n vec3 skyHorizon = linearizeGamma(skyColor);\n vec3 skyZenit = linearizeGamma(skyZenitColor);\n vec3 skyColor = getSkyGradientColor(upDotV, skyHorizon, skyZenit );\n\n // we use the upDotL to smoothen out the\n // reflected color of the water\n float upDotL = max(dot(localUp,l),0.0);\n\n // The approximated sky color is adjusted according to the sun position.\n // This is done as approximation for e.g. night views.\n skyColor *= 0.1 + upDotL * 0.9;\n\n // If a water surface is in shadow we just use a slight darkening of the\n // water surface expressed with this shadowModifier.\n float shadowModifier = clamp(shadow, 0.8, 1.0);\n\n // The reflected sky color consists of the fresnel reflection multiplied with the approximated sky color.\n // The shadow is influencing the frensel term to keep the shadow impression for really near views. As long\n // as reflection are absent there is a need to have a slight shadow for depth perception.\n vec3 reflSky = fresnelReflection(shadingInfo.VdotN, vec3(fresnelSky[0]), fresnelSky[1]) * skyColor * shadowModifier;\n\n // The reflected sea color is the input water color combined with the reflected sky color.\n // The reflected sky color is modified by the incoming light.\n vec3 reflSea = seaWaterColor * mix(skyColor, upDotL * lightIntensity * LIGHT_NORMALIZATION, 2.0 / 3.0) * shadowModifier;\n\n vec3 specular = vec3(0.0);\n // This prevents the specular light to be rendered when:\n // - sun is behind a polygon (e.g. sundown for elevated polygons where nDotL might be still ok)\n // - viewer is under water (for this localUp is better than n)\n if(upDotV > 0.0 && upDotL > 0.0) {\n // calculate the cook torrance BRDF but with simplified occlusion\n vec3 specularSun = brdfWater(shadingInfo, roughness, vec3(fresnelMaterial[0]), fresnelMaterial[1]);\n // Normalize light intensity to be between 0...1. Shadow cancels out specular light here\n vec3 incidentLight = lightIntensity * LIGHT_NORMALIZATION * shadow;\n\n specular = shadingInfo.NdotL * incidentLight * specularSun;\n }\n // combining reflected sky, reflected sea and specular highlight.\n return tonemapACES(reflSky + reflSea + specular);\n }\n "]))));
}
Object.defineProperty(n, "__esModule", {
value: !0
}), n.Water = i;
var s;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/WaterDistortion.glsl.js":
/*!*************************************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/WaterDistortion.glsl.js ***!
\*************************************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineCoreShaderLibraryShadingWaterDistortionGlslJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../../core/tsSupport/makeTemplateObjectHelper */
"./node_modules/arcgis-js-api/core/tsSupport/makeTemplateObjectHelper.js"), __webpack_require__(
/*! ../../shaderModules/interfaces */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/interfaces.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, t, n, r) {
function a(e) {
e.fragment.uniforms.add("texWaveNormal", "sampler2D"), e.fragment.uniforms.add("texWavePerturbation", "sampler2D"), e.fragment.uniforms.add("octaveTextureRepeat", "vec3"), e.fragment.uniforms.add("waveParams", "vec4"), e.fragment.uniforms.add("waveDirection", "vec2"), e.fragment.code.add(r.glsl(o || (o = n(["\n // uniform vec3 octaveTextureRepeat;\n\n // // 0: waveStrength\n // // 1: waveTextureRepeat\n // // 2: flowStrength\n // // 3: flowOffset\n // uniform vec4 waveParams;\n\n // uniform vec2 waveDirection;\n\n const vec2 FLOW_JUMP = vec2(6.0/25.0, 5.0/24.0);\n\n vec2 textureDenormalized2D(sampler2D _tex, vec2 _uv) {\n return 2.0 * texture2D(_tex, _uv).rg - 1.0;\n }\n\n float sampleNoiseTexture(vec2 _uv) {\n return texture2D(texWavePerturbation, _uv).b;\n }\n\n vec3 textureDenormalized3D(sampler2D _tex, vec2 _uv) {\n return 2.0 * texture2D(_tex, _uv).rgb - 1.0;\n }\n\n float computeProgress(vec2 uv, float time) {\n return fract(time);\n }\n\n float computeWeight(vec2 uv, float time) {\n float progress = computeProgress(uv, time);\n return 1.0 - abs(1.0 - 2.0 * progress);\n }\n\n vec3 computeUVPerturbedWeigth(sampler2D texFlow, vec2 uv, float time, float phaseOffset) {\n float flowStrength = waveParams[2];\n float flowOffset = waveParams[3];\n\n vec2 flowVector = textureDenormalized2D(texFlow, uv) * flowStrength;\n\n float progress = computeProgress(uv, time + phaseOffset);\n float weight = computeWeight(uv, time + phaseOffset);\n\n vec2 result = uv;\n result -= flowVector * (progress + flowOffset);\n result += phaseOffset;\n result += (time - progress) * FLOW_JUMP;\n\n return vec3(result, weight);\n }\n\n const float TIME_NOISE_TEXTURE_REPEAT = 0.3737;\n const float TIME_NOISE_STRENGTH = 7.77;\n\n vec3 getWaveLayer(sampler2D _texNormal, sampler2D _dudv, vec2 _uv, vec2 _waveDir, float time) {\n float waveStrength = waveParams[0];\n\n // overall directional shift in uv's for directional wave movement for\n // now we do a hard coded scale for wave speed such that a unit length\n // direction is not too fast.\n vec2 waveMovement = time * -_waveDir;\n\n float timeNoise = sampleNoiseTexture(_uv * TIME_NOISE_TEXTURE_REPEAT) * TIME_NOISE_STRENGTH;\n\n // compute two perturbed uvs and blend weights\n // then sample the wave normals at the two positions and blend\n vec3 uv_A = computeUVPerturbedWeigth(_dudv, _uv + waveMovement, time + timeNoise, 0.0);\n vec3 uv_B = computeUVPerturbedWeigth(_dudv, _uv + waveMovement, time + timeNoise, 0.5);\n\n vec3 normal_A = textureDenormalized3D(_texNormal, uv_A.xy) * uv_A.z;\n vec3 normal_B = textureDenormalized3D(_texNormal, uv_B.xy) * uv_B.z;\n\n // logic to flatten the wave pattern\n // scale xy components of the normal, then adjust z (up) component\n vec3 mixNormal = normalize(normal_A + normal_B);\n mixNormal.xy *= waveStrength;\n mixNormal.z = sqrt(1.0 - dot(mixNormal.xy, mixNormal.xy));\n\n return mixNormal;\n }\n\n vec3 getSurfaceNormal(vec2 _uv, float _time) {\n float waveTextureRepeat = waveParams[1];\n return getWaveLayer(texWaveNormal, texWavePerturbation, _uv * waveTextureRepeat, waveDirection, _time);\n }\n "], ["\n // uniform vec3 octaveTextureRepeat;\n\n // // 0: waveStrength\n // // 1: waveTextureRepeat\n // // 2: flowStrength\n // // 3: flowOffset\n // uniform vec4 waveParams;\n\n // uniform vec2 waveDirection;\n\n const vec2 FLOW_JUMP = vec2(6.0/25.0, 5.0/24.0);\n\n vec2 textureDenormalized2D(sampler2D _tex, vec2 _uv) {\n return 2.0 * texture2D(_tex, _uv).rg - 1.0;\n }\n\n float sampleNoiseTexture(vec2 _uv) {\n return texture2D(texWavePerturbation, _uv).b;\n }\n\n vec3 textureDenormalized3D(sampler2D _tex, vec2 _uv) {\n return 2.0 * texture2D(_tex, _uv).rgb - 1.0;\n }\n\n float computeProgress(vec2 uv, float time) {\n return fract(time);\n }\n\n float computeWeight(vec2 uv, float time) {\n float progress = computeProgress(uv, time);\n return 1.0 - abs(1.0 - 2.0 * progress);\n }\n\n vec3 computeUVPerturbedWeigth(sampler2D texFlow, vec2 uv, float time, float phaseOffset) {\n float flowStrength = waveParams[2];\n float flowOffset = waveParams[3];\n\n vec2 flowVector = textureDenormalized2D(texFlow, uv) * flowStrength;\n\n float progress = computeProgress(uv, time + phaseOffset);\n float weight = computeWeight(uv, time + phaseOffset);\n\n vec2 result = uv;\n result -= flowVector * (progress + flowOffset);\n result += phaseOffset;\n result += (time - progress) * FLOW_JUMP;\n\n return vec3(result, weight);\n }\n\n const float TIME_NOISE_TEXTURE_REPEAT = 0.3737;\n const float TIME_NOISE_STRENGTH = 7.77;\n\n vec3 getWaveLayer(sampler2D _texNormal, sampler2D _dudv, vec2 _uv, vec2 _waveDir, float time) {\n float waveStrength = waveParams[0];\n\n // overall directional shift in uv's for directional wave movement for\n // now we do a hard coded scale for wave speed such that a unit length\n // direction is not too fast.\n vec2 waveMovement = time * -_waveDir;\n\n float timeNoise = sampleNoiseTexture(_uv * TIME_NOISE_TEXTURE_REPEAT) * TIME_NOISE_STRENGTH;\n\n // compute two perturbed uvs and blend weights\n // then sample the wave normals at the two positions and blend\n vec3 uv_A = computeUVPerturbedWeigth(_dudv, _uv + waveMovement, time + timeNoise, 0.0);\n vec3 uv_B = computeUVPerturbedWeigth(_dudv, _uv + waveMovement, time + timeNoise, 0.5);\n\n vec3 normal_A = textureDenormalized3D(_texNormal, uv_A.xy) * uv_A.z;\n vec3 normal_B = textureDenormalized3D(_texNormal, uv_B.xy) * uv_B.z;\n\n // logic to flatten the wave pattern\n // scale xy components of the normal, then adjust z (up) component\n vec3 mixNormal = normalize(normal_A + normal_B);\n mixNormal.xy *= waveStrength;\n mixNormal.z = sqrt(1.0 - dot(mixNormal.xy, mixNormal.xy));\n\n return mixNormal;\n }\n\n vec3 getSurfaceNormal(vec2 _uv, float _time) {\n float waveTextureRepeat = waveParams[1];\n return getWaveLayer(texWaveNormal, texWavePerturbation, _uv * waveTextureRepeat, waveDirection, _time);\n }\n "]))));
}
Object.defineProperty(t, "__esModule", {
value: !0
}), t.WaterDistortion = a;
var o;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/util/ColorConversion.glsl.js":
/*!**********************************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/util/ColorConversion.glsl.js ***!
\**********************************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineCoreShaderLibraryUtilColorConversionGlslJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../../core/tsSupport/makeTemplateObjectHelper */
"./node_modules/arcgis-js-api/core/tsSupport/makeTemplateObjectHelper.js"), __webpack_require__(
/*! ../../shaderModules/interfaces */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/interfaces.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, c, n, r) {
function v(e, c) {
var v = [r.glsl(a || (a = n(["\n vec4 premultiplyAlpha(vec4 v) {\n return vec4(v.rgb * v.a, v.a);\n }\n "], ["\n vec4 premultiplyAlpha(vec4 v) {\n return vec4(v.rgb * v.a, v.a);\n }\n "]))), r.glsl(x || (x = n(["\n vec3 rgb2hsv(vec3 c) {\n vec4 K = vec4(0.0, -1.0 / 3.0, 2.0 / 3.0, -1.0);\n vec4 p = c.g < c.b ? vec4(c.bg, K.wz) : vec4(c.gb, K.xy);\n vec4 q = c.r < p.x ? vec4(p.xyw, c.r) : vec4(c.r, p.yzx);\n\n float d = q.x - min(q.w, q.y);\n float e = 1.0e-10;\n return vec3(abs(q.z + (q.w - q.y) / (6.0 * d + e)), min(d / (q.x + e), 1.0), q.x);\n }\n "], ["\n vec3 rgb2hsv(vec3 c) {\n vec4 K = vec4(0.0, -1.0 / 3.0, 2.0 / 3.0, -1.0);\n vec4 p = c.g < c.b ? vec4(c.bg, K.wz) : vec4(c.gb, K.xy);\n vec4 q = c.r < p.x ? vec4(p.xyw, c.r) : vec4(c.r, p.yzx);\n\n float d = q.x - min(q.w, q.y);\n float e = 1.0e-10;\n return vec3(abs(q.z + (q.w - q.y) / (6.0 * d + e)), min(d / (q.x + e), 1.0), q.x);\n }\n "]))), r.glsl(t || (t = n(["\n vec3 hsv2rgb(vec3 c) {\n vec4 K = vec4(1.0, 2.0 / 3.0, 1.0 / 3.0, 3.0);\n vec3 p = abs(fract(c.xxx + K.xyz) * 6.0 - K.www);\n return c.z * mix(K.xxx, clamp(p - K.xxx, 0.0, 1.0), c.y);\n }\n "], ["\n vec3 hsv2rgb(vec3 c) {\n vec4 K = vec4(1.0, 2.0 / 3.0, 1.0 / 3.0, 3.0);\n vec3 p = abs(fract(c.xxx + K.xyz) * 6.0 - K.www);\n return c.z * mix(K.xxx, clamp(p - K.xxx, 0.0, 1.0), c.y);\n }\n "]))), r.glsl(o || (o = n(["\n float rgb2v(vec3 c) {\n return max(c.x, max(c.y, c.z));\n }\n "], ["\n float rgb2v(vec3 c) {\n return max(c.x, max(c.y, c.z));\n }\n "])))];
switch (c.stages) {
case 0:
v.forEach(function (c) {
return e.vertex.code.add(c);
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break;
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v.forEach(function (c) {
return e.fragment.code.add(c);
});
break;
default:
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return e.vertex.code.add(c);
}), v.forEach(function (c) {
return e.fragment.code.add(c);
});
}
}
Object.defineProperty(c, "__esModule", {
value: !0
}), c.ColorConversion = v;
var a, x, t, o;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
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"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/util/DecodeNormal.glsl.js":
/*!*******************************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/util/DecodeNormal.glsl.js ***!
\*******************************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineCoreShaderLibraryUtilDecodeNormalGlslJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../../core/tsSupport/makeTemplateObjectHelper */
"./node_modules/arcgis-js-api/core/tsSupport/makeTemplateObjectHelper.js"), __webpack_require__(
/*! ../../shaderModules/interfaces */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/interfaces.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, n, r, a) {
function f(e) {
var n = a.glsl(o || (o = r(["\n vec3 decodeNormal(vec2 f) {\n float z = 1.0 - abs(f.x) - abs(f.y);\n return vec3(f + sign(f) * min(z, 0.0), z);\n }\n "], ["\n vec3 decodeNormal(vec2 f) {\n float z = 1.0 - abs(f.x) - abs(f.y);\n return vec3(f + sign(f) * min(z, 0.0), z);\n }\n "])));
e.fragment.code.add(n), e.vertex.code.add(n);
}
Object.defineProperty(n, "__esModule", {
value: !0
}), n.DecodeNormal = f;
var o;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
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"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/util/DoublePrecision.glsl.js":
/*!**********************************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/util/DoublePrecision.glsl.js ***!
\**********************************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineCoreShaderLibraryUtilDoublePrecisionGlslJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../../core/tsSupport/makeTemplateObjectHelper */
"./node_modules/arcgis-js-api/core/tsSupport/makeTemplateObjectHelper.js"), __webpack_require__(
/*! ../../../../../../core/has */
"./node_modules/arcgis-js-api/core/has.js"), __webpack_require__(
/*! ../../shaderModules/interfaces */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/interfaces.js"), __webpack_require__(
/*! ../../../lib/WebGLDriverTest */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/WebGLDriverTest.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, n, c, i, t, r) {
function v(e, n) {
n.doublePrecisionRequiresObfuscation ? e.vertex.code.add(t.glsl(l || (l = c(["\n vec3 dpPlusFrc(vec3 a, vec3 b) {\n return mix(a, a + b, vec3(notEqual(b, vec3(0))));\n }\n\n vec3 dpMinusFrc(vec3 a, vec3 b) {\n return mix(vec3(0), a - b, vec3(notEqual(a, b)));\n }\n\n // based on https://www.thasler.com/blog/blog/glsl-part2-emu\n vec3 dpAdd(vec3 hiA, vec3 loA, vec3 hiB, vec3 loB) {\n vec3 t1 = dpPlusFrc(hiA, hiB);\n vec3 e = dpMinusFrc(t1, hiA);\n vec3 t2 = dpMinusFrc(hiB, e) + dpMinusFrc(hiA, dpMinusFrc(t1, e)) + loA + loB;\n return t1 + t2;\n }\n "], ["\n vec3 dpPlusFrc(vec3 a, vec3 b) {\n return mix(a, a + b, vec3(notEqual(b, vec3(0))));\n }\n\n vec3 dpMinusFrc(vec3 a, vec3 b) {\n return mix(vec3(0), a - b, vec3(notEqual(a, b)));\n }\n\n // based on https://www.thasler.com/blog/blog/glsl-part2-emu\n vec3 dpAdd(vec3 hiA, vec3 loA, vec3 hiB, vec3 loB) {\n vec3 t1 = dpPlusFrc(hiA, hiB);\n vec3 e = dpMinusFrc(t1, hiA);\n vec3 t2 = dpMinusFrc(hiB, e) + dpMinusFrc(hiA, dpMinusFrc(t1, e)) + loA + loB;\n return t1 + t2;\n }\n "])))) : e.vertex.code.add(t.glsl(u || (u = c(["\n vec3 dpAdd(vec3 hiA, vec3 loA, vec3 hiB, vec3 loB) {\n vec3 t1 = hiA + hiB;\n vec3 e = t1 - hiA;\n vec3 t2 = ((hiB - e) + (hiA - (t1 - e))) + loA + loB;\n return t1 + t2;\n }\n "], ["\n vec3 dpAdd(vec3 hiA, vec3 loA, vec3 hiB, vec3 loB) {\n vec3 t1 = hiA + hiB;\n vec3 e = t1 - hiA;\n vec3 t2 = ((hiB - e) + (hiA - (t1 - e))) + loA + loB;\n return t1 + t2;\n }\n "]))));
}
function o(e) {
return !!i("force-double-precision-obfuscation") || r.testWebGLDriver(e).doublePrecisionRequiresObfuscation;
}
Object.defineProperty(n, "__esModule", {
value: !0
}), n.DoublePrecision = v, n.doublePrecisionRequiresObfuscation = o;
var l, u;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/util/MixExternalColor.glsl.js":
/*!***********************************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/util/MixExternalColor.glsl.js ***!
\***********************************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineCoreShaderLibraryUtilMixExternalColorGlslJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../../core/tsSupport/makeTemplateObjectHelper */
"./node_modules/arcgis-js-api/core/tsSupport/makeTemplateObjectHelper.js"), __webpack_require__(
/*! ./ColorConversion.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/util/ColorConversion.glsl.js"), __webpack_require__(
/*! ../../shaderModules/interfaces */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/interfaces.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, n, t, r, i) {
function l(e, n) {
e.include(r.ColorConversion, n);
var l = i.glsl(a || (a = t(["\n vec3 mixExternalColor(vec3 internalColor, vec3 textureColor, vec3 externalColor, int mode) {\n // workaround for artifacts in OSX using Intel Iris Pro\n // see: https://devtopia.esri.com/WebGIS/arcgis-js-api/issues/10475\n vec3 internalMixed = internalColor * textureColor;\n vec3 allMixed = internalMixed * externalColor;\n\n if (mode == ", ") {\n return allMixed;\n }\n else if (mode == ", ") {\n return internalMixed;\n }\n else if (mode == ", ") {\n return externalColor;\n }\n else {\n // tint (or something invalid)\n float vIn = rgb2v(internalMixed);\n vec3 hsvTint = rgb2hsv(externalColor);\n vec3 hsvOut = vec3(hsvTint.x, hsvTint.y, vIn * hsvTint.z);\n return hsv2rgb(hsvOut);\n }\n }\n\n float mixExternalOpacity(float internalOpacity, float textureOpacity, float externalOpacity, int mode) {\n // workaround for artifacts in OSX using Intel Iris Pro\n // see: https://devtopia.esri.com/WebGIS/arcgis-js-api/issues/10475\n float internalMixed = internalOpacity * textureOpacity;\n float allMixed = internalMixed * externalOpacity;\n\n if (mode == ", ") {\n return internalMixed;\n }\n else if (mode == ", ") {\n return externalOpacity;\n }\n else {\n // multiply or tint (or something invalid)\n return allMixed;\n }\n }\n "], ["\n vec3 mixExternalColor(vec3 internalColor, vec3 textureColor, vec3 externalColor, int mode) {\n // workaround for artifacts in OSX using Intel Iris Pro\n // see: https://devtopia.esri.com/WebGIS/arcgis-js-api/issues/10475\n vec3 internalMixed = internalColor * textureColor;\n vec3 allMixed = internalMixed * externalColor;\n\n if (mode == ", ") {\n return allMixed;\n }\n else if (mode == ", ") {\n return internalMixed;\n }\n else if (mode == ", ") {\n return externalColor;\n }\n else {\n // tint (or something invalid)\n float vIn = rgb2v(internalMixed);\n vec3 hsvTint = rgb2hsv(externalColor);\n vec3 hsvOut = vec3(hsvTint.x, hsvTint.y, vIn * hsvTint.z);\n return hsv2rgb(hsvOut);\n }\n }\n\n float mixExternalOpacity(float internalOpacity, float textureOpacity, float externalOpacity, int mode) {\n // workaround for artifacts in OSX using Intel Iris Pro\n // see: https://devtopia.esri.com/WebGIS/arcgis-js-api/issues/10475\n float internalMixed = internalOpacity * textureOpacity;\n float allMixed = internalMixed * externalOpacity;\n\n if (mode == ", ") {\n return internalMixed;\n }\n else if (mode == ", ") {\n return externalOpacity;\n }\n else {\n // multiply or tint (or something invalid)\n return allMixed;\n }\n }\n "])), i.glsl["int"](1), i.glsl["int"](2), i.glsl["int"](3), i.glsl["int"](2), i.glsl["int"](3));
switch (n.stages) {
case 0:
e.vertex.code.add(l);
break;
case 1:
e.fragment.code.add(l);
break;
default:
e.vertex.code.add(l), e.fragment.code.add(l);
}
}
Object.defineProperty(n, "__esModule", {
value: !0
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var a;
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"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/util/RgbaFloatEncoding.glsl.js":
/*!************************************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/util/RgbaFloatEncoding.glsl.js ***!
\************************************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineCoreShaderLibraryUtilRgbaFloatEncodingGlslJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../../core/tsSupport/makeTemplateObjectHelper */
"./node_modules/arcgis-js-api/core/tsSupport/makeTemplateObjectHelper.js"), __webpack_require__(
/*! ../../shaderModules/interfaces */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/interfaces.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (n, t, e, o) {
function a(n) {
var t = o.glsl(r || (r = e(["\n // This is the maximum float value representable as 32bit fixed point,\n // it is rgba2float(vec4(1)) inlined.\n const float MAX_RGBA_FLOAT =\n 255.0 / 256.0 +\n 255.0 / 256.0 / 256.0 +\n 255.0 / 256.0 / 256.0 / 256.0 +\n 255.0 / 256.0 / 256.0 / 256.0 / 256.0;\n\n // Factors to convert to fixed point, i.e. factors (256^0, 256^1, 256^2, 256^3)\n const vec4 FIXED_POINT_FACTORS = vec4(1.0, 256.0, 256.0 * 256.0, 256.0 * 256.0 * 256.0);\n\n vec4 float2rgba(const float value) {\n // Make sure value is in the domain we can represent\n float valueInValidDomain = clamp(value, 0.0, MAX_RGBA_FLOAT);\n\n // Decompose value in 32bit fixed point parts represented as\n // uint8 rgba components. Decomposition uses the fractional part after multiplying\n // by a power of 256 (this removes the bits that are represented in the previous\n // component) and then converts the fractional part to 8bits.\n vec4 fixedPointU8 = floor(fract(valueInValidDomain * FIXED_POINT_FACTORS) * 256.0);\n\n // Convert uint8 values (from 0 to 255) to floating point representation for\n // the shader\n const float toU8AsFloat = 1.0 / 255.0;\n\n return fixedPointU8 * toU8AsFloat;\n }\n\n // Factors to convert rgba back to float\n const vec4 RGBA_2_FLOAT_FACTORS = vec4(\n 255.0 / (256.0),\n 255.0 / (256.0 * 256.0),\n 255.0 / (256.0 * 256.0 * 256.0),\n 255.0 / (256.0 * 256.0 * 256.0 * 256.0)\n );\n\n float rgba2float(vec4 rgba) {\n // Convert components from 0->1 back to 0->255 and then\n // add the components together with their corresponding\n // fixed point factors, i.e. (256^1, 256^2, 256^3, 256^4)\n return dot(rgba, RGBA_2_FLOAT_FACTORS);\n }\n "], ["\n // This is the maximum float value representable as 32bit fixed point,\n // it is rgba2float(vec4(1)) inlined.\n const float MAX_RGBA_FLOAT =\n 255.0 / 256.0 +\n 255.0 / 256.0 / 256.0 +\n 255.0 / 256.0 / 256.0 / 256.0 +\n 255.0 / 256.0 / 256.0 / 256.0 / 256.0;\n\n // Factors to convert to fixed point, i.e. factors (256^0, 256^1, 256^2, 256^3)\n const vec4 FIXED_POINT_FACTORS = vec4(1.0, 256.0, 256.0 * 256.0, 256.0 * 256.0 * 256.0);\n\n vec4 float2rgba(const float value) {\n // Make sure value is in the domain we can represent\n float valueInValidDomain = clamp(value, 0.0, MAX_RGBA_FLOAT);\n\n // Decompose value in 32bit fixed point parts represented as\n // uint8 rgba components. Decomposition uses the fractional part after multiplying\n // by a power of 256 (this removes the bits that are represented in the previous\n // component) and then converts the fractional part to 8bits.\n vec4 fixedPointU8 = floor(fract(valueInValidDomain * FIXED_POINT_FACTORS) * 256.0);\n\n // Convert uint8 values (from 0 to 255) to floating point representation for\n // the shader\n const float toU8AsFloat = 1.0 / 255.0;\n\n return fixedPointU8 * toU8AsFloat;\n }\n\n // Factors to convert rgba back to float\n const vec4 RGBA_2_FLOAT_FACTORS = vec4(\n 255.0 / (256.0),\n 255.0 / (256.0 * 256.0),\n 255.0 / (256.0 * 256.0 * 256.0),\n 255.0 / (256.0 * 256.0 * 256.0 * 256.0)\n );\n\n float rgba2float(vec4 rgba) {\n // Convert components from 0->1 back to 0->255 and then\n // add the components together with their corresponding\n // fixed point factors, i.e. (256^1, 256^2, 256^3, 256^4)\n return dot(rgba, RGBA_2_FLOAT_FACTORS);\n }\n "])));
n.fragment.code.add(t), n.vertex.code.add(t);
}
Object.defineProperty(t, "__esModule", {
value: !0
}), t.RgbaFloatEncoding = a;
var r;
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"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/util/ScreenSizePerspective.glsl.js":
/*!****************************************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/util/ScreenSizePerspective.glsl.js ***!
\****************************************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineCoreShaderLibraryUtilScreenSizePerspectiveGlslJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../../core/tsSupport/makeTemplateObjectHelper */
"./node_modules/arcgis-js-api/core/tsSupport/makeTemplateObjectHelper.js"), __webpack_require__(
/*! ../../shaderModules/interfaces */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/interfaces.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, a, n, r) {
function s(e) {
e.vertex.code.add(r.glsl(c || (c = n(["\n float screenSizePerspectiveMinSize(float size, vec4 factor) {\n float nonZeroSize = 1.0 - step(size, 0.0);\n\n return (\n factor.z * (\n 1.0 +\n nonZeroSize * // Multiply by nzs ensures if size is 0, then we ignore\n // proportionally scaled padding\n 2.0 * factor.w / (\n size + (1.0 - nonZeroSize) // Adding 1 - nzs ensures we divide either by size, or by 1\n )\n )\n );\n }\n "], ["\n float screenSizePerspectiveMinSize(float size, vec4 factor) {\n float nonZeroSize = 1.0 - step(size, 0.0);\n\n return (\n factor.z * (\n 1.0 +\n nonZeroSize * // Multiply by nzs ensures if size is 0, then we ignore\n // proportionally scaled padding\n 2.0 * factor.w / (\n size + (1.0 - nonZeroSize) // Adding 1 - nzs ensures we divide either by size, or by 1\n )\n )\n );\n }\n "])))), e.vertex.code.add(r.glsl(t || (t = n(["\n float screenSizePerspectiveViewAngleDependentFactor(float absCosAngle) {\n return absCosAngle * absCosAngle * absCosAngle;\n }\n "], ["\n float screenSizePerspectiveViewAngleDependentFactor(float absCosAngle) {\n return absCosAngle * absCosAngle * absCosAngle;\n }\n "])))), e.vertex.code.add(r.glsl(i || (i = n(["\n vec4 screenSizePerspectiveScaleFactor(float absCosAngle, float distanceToCamera, vec4 params) {\n return vec4(min(params.x / (distanceToCamera - params.y), 1.0), screenSizePerspectiveViewAngleDependentFactor(absCosAngle), params.z, params.w);\n }\n "], ["\n vec4 screenSizePerspectiveScaleFactor(float absCosAngle, float distanceToCamera, vec4 params) {\n return vec4(min(params.x / (distanceToCamera - params.y), 1.0), screenSizePerspectiveViewAngleDependentFactor(absCosAngle), params.z, params.w);\n }\n "])))), e.vertex.code.add(r.glsl(o || (o = n(["\n float applyScreenSizePerspectiveScaleFactorFloat(float size, vec4 factor) {\n return max(mix(size * factor.x, size, factor.y), screenSizePerspectiveMinSize(size, factor));\n }\n "], ["\n float applyScreenSizePerspectiveScaleFactorFloat(float size, vec4 factor) {\n return max(mix(size * factor.x, size, factor.y), screenSizePerspectiveMinSize(size, factor));\n }\n "])))), e.vertex.code.add(r.glsl(l || (l = n(["\n float screenSizePerspectiveScaleFloat(float size, float absCosAngle, float distanceToCamera, vec4 params) {\n return applyScreenSizePerspectiveScaleFactorFloat(size, screenSizePerspectiveScaleFactor(absCosAngle, distanceToCamera, params));\n }\n "], ["\n float screenSizePerspectiveScaleFloat(float size, float absCosAngle, float distanceToCamera, vec4 params) {\n return applyScreenSizePerspectiveScaleFactorFloat(size, screenSizePerspectiveScaleFactor(absCosAngle, distanceToCamera, params));\n }\n "])))), e.vertex.code.add(r.glsl(p || (p = n(["\n vec2 applyScreenSizePerspectiveScaleFactorVec2(vec2 size, vec4 factor) {\n return mix(size * clamp(factor.x, screenSizePerspectiveMinSize(size.y, factor) / size.y, 1.0), size, factor.y);\n }\n "], ["\n vec2 applyScreenSizePerspectiveScaleFactorVec2(vec2 size, vec4 factor) {\n return mix(size * clamp(factor.x, screenSizePerspectiveMinSize(size.y, factor) / size.y, 1.0), size, factor.y);\n }\n "])))), e.vertex.code.add(r.glsl(z || (z = n(["\n vec2 screenSizePerspectiveScaleVec2(vec2 size, float absCosAngle, float distanceToCamera, vec4 params) {\n return applyScreenSizePerspectiveScaleFactorVec2(size, screenSizePerspectiveScaleFactor(absCosAngle, distanceToCamera, params));\n }\n "], ["\n vec2 screenSizePerspectiveScaleVec2(vec2 size, float absCosAngle, float distanceToCamera, vec4 params) {\n return applyScreenSizePerspectiveScaleFactorVec2(size, screenSizePerspectiveScaleFactor(absCosAngle, distanceToCamera, params));\n }\n "]))));
}
Object.defineProperty(a, "__esModule", {
value: !0
}), a.ScreenSizePerspective = s;
var c, t, i, o, l, p, z;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/util/TextureAtlasLookup.glsl.js":
/*!*************************************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/util/TextureAtlasLookup.glsl.js ***!
\*************************************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineCoreShaderLibraryUtilTextureAtlasLookupGlslJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../../core/tsSupport/makeTemplateObjectHelper */
"./node_modules/arcgis-js-api/core/tsSupport/makeTemplateObjectHelper.js"), __webpack_require__(
/*! ../../shaderModules/interfaces */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/interfaces.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, t, a, d) {
function n(e) {
e.extensions.add("GL_EXT_shader_texture_lod"), e.extensions.add("GL_OES_standard_derivatives"), e.fragment.code.add(d.glsl(r || (r = a(["\n #ifndef GL_EXT_shader_texture_lod\n float calcMipMapLevel(const vec2 ddx, const vec2 ddy) {\n float deltaMaxSqr = max(dot(ddx, ddx), dot(ddy, ddy));\n return max(0.0, 0.5 * log2(deltaMaxSqr));\n }\n #endif\n\n vec4 textureAtlasLookup(sampler2D texture, vec2 textureSize, vec2 textureCoordinates, vec4 atlasRegion) {\n //[umin, vmin, umax, vmax]\n vec2 atlasScale = atlasRegion.zw - atlasRegion.xy;\n vec2 uvAtlas = fract(textureCoordinates) * atlasScale + atlasRegion.xy;\n\n // calculate derivative of continuous texture coordinate\n // to avoid mipmapping artifacts caused by manual wrapping in shader\n vec2 dUVdx = dFdx(textureCoordinates) * atlasScale;\n vec2 dUVdy = dFdy(textureCoordinates) * atlasScale;\n\n #ifdef GL_EXT_shader_texture_lod\n return texture2DGradEXT(texture, uvAtlas, dUVdx, dUVdy);\n #else\n // use bias to compensate for difference in automatic vs desired mipmap level\n vec2 dUVdxAuto = dFdx(uvAtlas);\n vec2 dUVdyAuto = dFdy(uvAtlas);\n float mipMapLevel = calcMipMapLevel(dUVdx * textureSize, dUVdy * textureSize);\n float autoMipMapLevel = calcMipMapLevel(dUVdxAuto * textureSize, dUVdyAuto * textureSize);\n\n return texture2D(texture, uvAtlas, mipMapLevel - autoMipMapLevel);\n #endif\n }\n "], ["\n #ifndef GL_EXT_shader_texture_lod\n float calcMipMapLevel(const vec2 ddx, const vec2 ddy) {\n float deltaMaxSqr = max(dot(ddx, ddx), dot(ddy, ddy));\n return max(0.0, 0.5 * log2(deltaMaxSqr));\n }\n #endif\n\n vec4 textureAtlasLookup(sampler2D texture, vec2 textureSize, vec2 textureCoordinates, vec4 atlasRegion) {\n //[umin, vmin, umax, vmax]\n vec2 atlasScale = atlasRegion.zw - atlasRegion.xy;\n vec2 uvAtlas = fract(textureCoordinates) * atlasScale + atlasRegion.xy;\n\n // calculate derivative of continuous texture coordinate\n // to avoid mipmapping artifacts caused by manual wrapping in shader\n vec2 dUVdx = dFdx(textureCoordinates) * atlasScale;\n vec2 dUVdy = dFdy(textureCoordinates) * atlasScale;\n\n #ifdef GL_EXT_shader_texture_lod\n return texture2DGradEXT(texture, uvAtlas, dUVdx, dUVdy);\n #else\n // use bias to compensate for difference in automatic vs desired mipmap level\n vec2 dUVdxAuto = dFdx(uvAtlas);\n vec2 dUVdyAuto = dFdy(uvAtlas);\n float mipMapLevel = calcMipMapLevel(dUVdx * textureSize, dUVdy * textureSize);\n float autoMipMapLevel = calcMipMapLevel(dUVdxAuto * textureSize, dUVdyAuto * textureSize);\n\n return texture2D(texture, uvAtlas, mipMapLevel - autoMipMapLevel);\n #endif\n }\n "]))));
}
Object.defineProperty(t, "__esModule", {
value: !0
}), t.TextureAtlasLookup = n;
var r;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/ShaderBuilder.js":
/*!**********************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/ShaderBuilder.js ***!
\**********************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineCoreShaderModulesShaderBuilderJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../core/iteratorUtils */
"./node_modules/arcgis-js-api/core/iteratorUtils.js"), __webpack_require__(
/*! ../../../../../core/Logger */
"./node_modules/arcgis-js-api/core/Logger.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, n, t, r) {
Object.defineProperty(n, "__esModule", {
value: !0
});
var i = r.getLogger("esri.views.3d.webgl-engine.core.shaderModules.shaderBuilder"),
o = function () {
function e() {
this.vertex = new a(), this.fragment = new a(), this.attributes = new c(), this.varyings = new d(), this.extensions = new f(), this.defines = new h(), this._includedModules = new Map();
}
return e.prototype.include = function (e, n) {
if (this._includedModules.has(e)) return void (this._includedModules.get(e) !== n && i.error("Trying to include shader module multiple times with different sets of options."));
this._includedModules.set(e, n), "shaderModule" in e ? e.shaderModule(this, n) : e(this, n);
}, e.prototype.generateSource = function (e) {
var n = this.extensions.generateSource(e),
t = this.attributes.generateSource(e),
r = this.varyings.generateSource(),
i = "vertex" === e ? this.vertex : this.fragment,
o = i.uniforms.generateSource(),
s = i.code.generateSource(),
u = "vertex" === e ? _ : p,
a = this.defines.generateSource().concat(i.defines.generateSource());
return "\n" + n.join("\n") + "\n\n" + a.join("\n") + "\n\n" + u + "\n\n" + o.join("\n") + "\n\n" + t.join("\n") + "\n\n" + r.join("\n") + "\n\n" + s.join("\n");
}, e;
}();
n.ShaderBuilder = o;
var s = function () {
function e() {
this._entries = new Array(), this._set = new Set();
}
return e.prototype.add = function (e, n, t) {
var r = e + "_" + n + "_" + t;
return this._set.has(r) || (this._entries.push([e, n, t]), this._set.add(r)), this;
}, e.prototype.generateSource = function () {
var e = function e(_e) {
return _e ? "[" + _e + "]" : "";
};
return this._entries.map(function (n) {
return "uniform " + n[1] + " " + n[0] + e(n[2]) + ";";
});
}, e;
}(),
u = function () {
function e() {
this._entries = new Array();
}
return e.prototype.add = function (e) {
this._entries.push(e);
}, e.prototype.generateSource = function () {
return this._entries;
}, e;
}(),
a = function () {
function e() {
this.uniforms = new s(), this.code = new u(), this.defines = new h();
}
return e;
}(),
c = function () {
function e() {
this._entries = new Array();
}
return e.prototype.add = function (e, n) {
this._entries.push([e, n]);
}, e.prototype.generateSource = function (e) {
return "fragment" === e ? [] : this._entries.map(function (e) {
return "attribute " + e[1] + " " + e[0] + ";";
});
}, e;
}(),
d = function () {
function e() {
this._entries = new Array();
}
return e.prototype.add = function (e, n) {
this._entries.push([e, n]);
}, e.prototype.generateSource = function () {
return this._entries.map(function (e) {
return "varying " + e[1] + " " + e[0] + ";";
});
}, e;
}(),
f = function () {
function e() {
this._entries = new Set();
}
return e.prototype.add = function (e) {
this._entries.add(e);
}, e.prototype.generateSource = function (n) {
var r = "vertex" === n ? e.WHITELIST_VERTEX : e.WHITELIST_FRAGMENT;
return t.valuesOfSet(this._entries).filter(function (e) {
return r.indexOf(e) >= 0;
}).map(function (e) {
return "#extension " + e + " : enable";
});
}, e.WHITELIST_FRAGMENT = ["GL_EXT_shader_texture_lod", "GL_OES_standard_derivatives"], e.WHITELIST_VERTEX = [], e;
}(),
h = function () {
function e() {
this._entries = new Map();
}
return e.prototype.addInt = function (e, n) {
var t = n % 1 == 0 ? n.toFixed(0) : n.toString();
this._entries.set(e, t);
}, e.prototype.addFloat = function (e, n) {
var t = n % 1 == 0 ? n.toFixed(1) : n.toString();
this._entries.set(e, t);
}, e.prototype.generateSource = function () {
return t.pairsOfMap(this._entries).map(function (e) {
return "#define " + e[0] + " " + e[1];
});
}, e;
}(),
p = "#ifdef GL_FRAGMENT_PRECISION_HIGH\n precision highp float;\n precision highp sampler2D;\n#else\n precision mediump float;\n precision mediump sampler2D;\n#endif",
_ = "precision highp float;\nprecision highp sampler2D;";
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/interfaces.js":
/*!*******************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/interfaces.js ***!
\*******************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineCoreShaderModulesInterfacesJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports], __WEBPACK_AMD_DEFINE_RESULT__ = function (n, e) {
function t(n) {
for (var e = [], t = 1; t < arguments.length; t++) e[t - 1] = arguments[t];
for (var r = "", l = 0; l < e.length; l++) r += n[l] + e[l];
return r += n[n.length - 1];
}
Object.defineProperty(e, "__esModule", {
value: !0
}), e.glsl = t, function (n) {
function e(n) {
return Math.round(n).toString();
}
n["int"] = e;
}(t = e.glsl || (e.glsl = {}));
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderTechnique/ReloadableShaderModule.js":
/*!*********************************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderTechnique/ReloadableShaderModule.js ***!
\*********************************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineCoreShaderTechniqueReloadableShaderModuleJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../core/promiseUtils */
"./node_modules/arcgis-js-api/core/promiseUtils.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, i, r) {
Object.defineProperty(i, "__esModule", {
value: !0
});
var t = function () {
function e(e, i, r) {
this._relativePath = i, this._moduleRequire = r, this._module = e;
}
return e.prototype.get = function () {
return this._module;
}, e.prototype.reload = function () {
var e = this,
i = this._moduleRequire.toUrl(this._relativePath);
return i = i.slice(i.indexOf("esri/")), this._recursivelyInvalidateModuleCache(i), r.create(function (i) {
e._moduleRequire([e._relativePath], function (r) {
e._module = r, i();
});
});
}, e.prototype._recursivelyInvalidateModuleCache = function (e) {
if (-1 !== e.search("shader") || -1 !== e.search("shading")) {
var i = this._moduleRequire.modules,
r = i[e];
if (r) {
var t = r.deps;
delete i[e];
for (var o = 0, u = t; o < u.length; o++) {
var a = u[o];
"esri" === a.pid && this._recursivelyInvalidateModuleCache(a.mid);
}
}
}
}, e;
}();
i.ReloadableShaderModule = t;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderTechnique/ShaderTechnique.js":
/*!**************************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderTechnique/ShaderTechnique.js ***!
\**************************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineCoreShaderTechniqueShaderTechniqueJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports], __WEBPACK_AMD_DEFINE_RESULT__ = function (r, e) {
function o(r) {
var e = r.__proto__.__configurationParameters,
o = {};
o.key = r.key;
for (var i = 0, t = e; i < t.length; i++) {
var n = t[i];
o[n] = r[n];
}
return o;
}
Object.defineProperty(e, "__esModule", {
value: !0
});
var i = function () {
function r(r, e) {
this._commonUniformStore = r.commonUniformStore, this._config = o(e), this._program = this.initializeProgram(r), this._commonUniformStore.subscribeProgram(this._program), this._pipeline = this.initializePipeline(r);
}
return r.prototype.dispose = function () {
this._program && (this._commonUniformStore.unsubscribeProgram(this._program), this._program.dispose(), this._program = null);
}, r.prototype.reload = function (r) {
this._program && (this._commonUniformStore.unsubscribeProgram(this._program), this._program.dispose()), this._program = this.initializeProgram(r), this._commonUniformStore.subscribeProgram(this._program);
}, Object.defineProperty(r.prototype, "program", {
get: function get() {
return this._program;
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(r.prototype, "pipeline", {
get: function get() {
return this._pipeline;
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(r.prototype, "key", {
get: function get() {
return this._config.key;
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(r.prototype, "configuration", {
get: function get() {
return this._config;
},
enumerable: !0,
configurable: !0
}), r.prototype.bindPass = function (r, e, o) {}, r.prototype.bindMaterial = function (r, e) {}, r.prototype.bindDraw = function (r) {}, r;
}();
e.ShaderTechnique = i;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderTechnique/ShaderTechniqueConfiguration.js":
/*!***************************************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderTechnique/ShaderTechniqueConfiguration.js ***!
\***************************************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineCoreShaderTechniqueShaderTechniqueConfigurationJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../core/mathUtils */
"./node_modules/arcgis-js-api/core/mathUtils.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, t, r) {
function i(e) {
return void 0 === e && (e = {}), function (t, i) {
var o = t;
o.__configurationParameters = o.__configurationParameters || [], o.__configurationParameters.push(i);
var n = "_" + i;
void 0 === o.__configurationParameters__offset && (o.__configurationParameters__offset = 0);
var a = o.__configurationParameters__offset,
f = e.count || 2,
u = Math.ceil(r.log2(f)),
s = (1 << u) - 1,
_ = s << a;
if (o.__configurationParameters__offset += u, o.__configurationParameters__offset >= 32) throw new Error("ShaderTechniqueConfiguration is too complex, requiring more than 32 bits to encode.\n Either the configuration must be simplified, or this restriction must be relaxed.(Currently used: " + o.__configurationParameters__offset + ")");
Object.defineProperty(o, i, {
get: function get() {
return this[n];
},
set: function set(e) {
this.key = this.key & ~_ | e << a & _, this[n] = e;
}
});
};
}
Object.defineProperty(t, "__esModule", {
value: !0
});
var o = function () {
function e() {
this.key = 0;
}
return e;
}();
t.ShaderTechniqueConfiguration = o, t.parameter = i;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/AutoDisposable.js":
/*!********************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/AutoDisposable.js ***!
\********************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineLibAutoDisposableJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../core/tsSupport/declareExtendsHelper */
"./node_modules/arcgis-js-api/core/tsSupport/declareExtendsHelper.js"), __webpack_require__(
/*! ../../../../core/tsSupport/decorateHelper */
"./node_modules/arcgis-js-api/core/tsSupport/decorateHelper.js"), __webpack_require__(
/*! ../../../../core/accessorSupport/decorators */
"./node_modules/arcgis-js-api/core/accessorSupport/decorators.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, s, i, o, t) {
function n() {
return function (e, s) {
e.__managedDisposables__ = e.__managedDisposables__ || [], e.__managedDisposables__.push(s);
};
}
Object.defineProperty(s, "__esModule", {
value: !0
}), s.AutoDisposableMixin = function (e) {
return function (e) {
function s() {
var s = null !== e && e.apply(this, arguments) || this;
return s._isDisposed = !1, s;
}
return i(s, e), s.prototype.dispose = function () {
for (var e = this.__proto__.__managedDisposables__ || [], s = e.length - 1; s >= 0; s--) {
var i = e[s];
this[i] && "function" == typeof this[i].dispose && this[i].dispose(), this[i] = null;
}
this._isDisposed = !0;
}, Object.defineProperty(s.prototype, "isDisposed", {
get: function get() {
return this._isDisposed;
},
enumerable: !0,
configurable: !0
}), s = o([t.subclass("esri.views.3d.webgl-engine.lib.AutoDisposableMixin")], s);
}(t.declared(e));
};
var r = function (e) {
function s() {
return null !== e && e.apply(this, arguments) || this;
}
return i(s, e), s = o([t.subclass("esri.views.3d.webgl-engine.lib.AutoDisposable")], s);
}(t.declared(s.AutoDisposableMixin(function () {
function e() {}
return e;
}())));
s.AutoDisposable = r, s.autoDispose = n;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
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},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/BoundingInfo.js":
/*!******************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/BoundingInfo.js ***!
\******************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineLibBoundingInfoJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../core/PooledArray */
"./node_modules/arcgis-js-api/core/PooledArray.js"), __webpack_require__(
/*! ../../../../core/libs/gl-matrix-2/vec3 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec3.js"), __webpack_require__(
/*! ../../../../core/libs/gl-matrix-2/vec3f64 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec3f64.js"), __webpack_require__(
/*! ./Util */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/Util.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (i, t, e, s, r, n) {
var h = function () {
function i(t, e, h, a) {
this.primitiveIndices = t, this._numIndexPerPrimitive = e, this.indices = h, this._position = a, this.center = r.vec3f64.create(), n.assert(t.length >= 1), n.assert(h.length % this._numIndexPerPrimitive == 0), n.assert(h.length >= t.length * this._numIndexPerPrimitive), n.assert(3 === this._position.size || 4 === this._position.size);
var b = this._position,
o = b.data,
c = b.offsetIdx,
d = b.strideIdx,
u = 0,
v = t.length,
m = c + d * h[this._numIndexPerPrimitive * t[u]];
for (i.tmpIndices.clear(), i.tmpIndices.push(m), this.bbMin = r.vec3f64.fromValues(o[m], o[m + 1], o[m + 2]), this.bbMax = r.vec3f64.clone(this.bbMin); u < v; ++u) for (var p = this._numIndexPerPrimitive * t[u], M = 0; M < this._numIndexPerPrimitive; ++M) {
m = c + d * h[p + M], i.tmpIndices.push(m);
var f = o[m];
this.bbMin[0] = Math.min(f, this.bbMin[0]), this.bbMax[0] = Math.max(f, this.bbMax[0]), f = o[m + 1], this.bbMin[1] = Math.min(f, this.bbMin[1]), this.bbMax[1] = Math.max(f, this.bbMax[1]), f = o[m + 2], this.bbMin[2] = Math.min(f, this.bbMin[2]), this.bbMax[2] = Math.max(f, this.bbMax[2]);
}
s.vec3.lerp(this.center, this.bbMin, this.bbMax, .5), this.bsRadius = .5 * Math.max(Math.max(this.bbMax[0] - this.bbMin[0], this.bbMax[1] - this.bbMin[1]), this.bbMax[2] - this.bbMin[2]);
var x = this.bsRadius * this.bsRadius;
for (u = 0; u < i.tmpIndices.length; ++u) {
m = i.tmpIndices.data[u];
var l = o[m] - this.center[0],
I = o[m + 1] - this.center[1],
P = o[m + 2] - this.center[2],
_ = l * l + I * I + P * P;
if (!(_ <= x)) {
var g = Math.sqrt(_),
y = .5 * (g - this.bsRadius);
this.bsRadius = this.bsRadius + y, x = this.bsRadius * this.bsRadius;
var R = y / g;
this.center[0] += l * R, this.center[1] += I * R, this.center[2] += P * R;
}
}
i.tmpIndices.clear();
}
return i.prototype.getCenter = function () {
return this.center;
}, i.prototype.getBSRadius = function () {
return this.bsRadius;
}, i.prototype.getBBMin = function () {
return this.bbMin;
}, i.prototype.getBBMax = function () {
return this.bbMax;
}, i.prototype.getPrimitiveIndices = function () {
return this.primitiveIndices;
}, i.prototype.getIndices = function () {
return this.indices;
}, i.prototype.getPosition = function () {
return this._position;
}, i.prototype.getChildren = function () {
if (this._children) return this._children;
if (s.vec3.squaredDistance(this.bbMin, this.bbMax) > 1) {
for (var t = s.vec3.lerp(r.vec3f64.create(), this.bbMin, this.bbMax, .5), e = this.primitiveIndices.length, n = new Uint8Array(e), h = new Array(8), a = 0; a < 8; ++a) h[a] = 0;
for (var b = this._position, o = b.data, c = b.offsetIdx, d = b.strideIdx, a = 0; a < e; ++a) {
for (var u = 0, v = this._numIndexPerPrimitive * this.primitiveIndices[a], m = c + d * this.indices[v], p = o[m], M = o[m + 1], f = o[m + 2], x = 1; x < this._numIndexPerPrimitive; ++x) {
m = c + d * this.indices[v + x];
var l = o[m],
I = o[m + 1],
P = o[m + 2];
l < p && (p = l), I < M && (M = I), P < f && (f = P);
}
p < t[0] && (u |= 1), M < t[1] && (u |= 2), f < t[2] && (u |= 4), n[a] = u, ++h[u];
}
for (var _ = 0, a = 0; a < 8; ++a) h[a] > 0 && ++_;
if (_ < 2) return;
for (var g = new Array(8), a = 0; a < 8; ++a) g[a] = h[a] > 0 ? new Uint32Array(h[a]) : void 0;
for (var a = 0; a < 8; ++a) h[a] = 0;
for (var a = 0; a < e; ++a) {
var u = n[a];
g[u][h[u]++] = this.primitiveIndices[a];
}
this._children = new Array(8);
for (var a = 0; a < 8; ++a) void 0 !== g[a] && (this._children[a] = new i(g[a], this._numIndexPerPrimitive, this.indices, this._position));
}
return this._children;
}, i;
}();
return function (i) {
i.tmpIndices = new e({
deallocator: null
});
}(h || (h = {})), h;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/DefaultTextureUnits.js":
/*!*************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/DefaultTextureUnits.js ***!
\*************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineLibDefaultTextureUnitsJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, O) {
Object.defineProperty(O, "__esModule", {
value: !0
}), O.DefaultTextureUnits = {
DIFFUSE: 0,
COMPONENT_COLOR: 1,
NORMAL: 2,
EMISSION: 3,
OCCLUSION: 4,
METALLIC_ROUGHNESS: 5
};
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/DefaultVertexAttributeLocations.js":
/*!*************************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/DefaultVertexAttributeLocations.js ***!
\*************************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineLibDefaultVertexAttributeLocationsJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, o) {
Object.defineProperty(o, "__esModule", {
value: !0
}), o.Default3D = {
position: 0,
normal: 1,
normalCompressed: 1,
uv0: 2,
color: 3,
instanceColor: 3,
size: 4,
tangent: 4,
auxpos1: 5,
symbolColor: 5,
componentIndex: 5,
auxpos2: 6,
featureAttribute: 6,
instanceFeatureAttribute: 6,
region: 7,
model: 8,
modelNormal: 12,
modelOriginHi: 11,
modelOriginLo: 15
};
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/DefaultVertexBufferLayouts.js":
/*!********************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/DefaultVertexBufferLayouts.js ***!
\********************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineLibDefaultVertexBufferLayoutsJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, o) {
Object.defineProperty(o, "__esModule", {
value: !0
}), o.Pos3 = [{
name: "position",
count: 3,
type: 5126,
offset: 0,
stride: 12,
normalized: !1
}], o.Pos3Tex = [{
name: "position",
count: 3,
type: 5126,
offset: 0,
stride: 20,
normalized: !1
}, {
name: "uv0",
count: 2,
type: 5126,
offset: 12,
stride: 20,
normalized: !1
}], o.Pos3NormalTex = [{
name: "position",
count: 3,
type: 5126,
offset: 0,
stride: 32,
normalized: !1
}, {
name: "normal",
count: 3,
type: 5126,
offset: 12,
stride: 32,
normalized: !1
}, {
name: "uv0",
count: 2,
type: 5126,
offset: 24,
stride: 32,
normalized: !1
}], o.Pos3Col = [{
name: "position",
count: 3,
type: 5126,
offset: 0,
stride: 16,
normalized: !1
}, {
name: "color",
count: 4,
type: 5121,
offset: 12,
stride: 16,
normalized: !1
}], o.Pos2 = [{
name: "position",
count: 2,
type: 5126,
offset: 0,
stride: 8,
normalized: !1
}], o.Pos2Tex = [{
name: "position",
count: 2,
type: 5126,
offset: 0,
stride: 16,
normalized: !1
}, {
name: "uv0",
count: 2,
type: 5126,
offset: 8,
stride: 16,
normalized: !1
}];
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/GLMaterial.js":
/*!****************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/GLMaterial.js ***!
\****************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineLibGLMaterialJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../core/tsSupport/declareExtendsHelper */
"./node_modules/arcgis-js-api/core/tsSupport/declareExtendsHelper.js"), __webpack_require__(
/*! ../../../../core/tsSupport/decorateHelper */
"./node_modules/arcgis-js-api/core/tsSupport/decorateHelper.js"), __webpack_require__(
/*! ../../../../core/accessorSupport/decorators */
"./node_modules/arcgis-js-api/core/accessorSupport/decorators.js"), __webpack_require__(
/*! ./AutoDisposable */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/AutoDisposable.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, t, r, o, i, s) {
Object.defineProperty(t, "__esModule", {
value: !0
});
var n = function (e) {
function t(t) {
var r = e.call(this) || this;
return r.material = t.material, r.programRep = t.programRep, r.techniqueRep = t.techniqueRep, r;
}
return r(t, e), t.prototype.isVisible = function () {
return this.material.isVisible();
}, t.prototype.isVisibleInPass = function (e) {
return this.material.isVisibleInPass(e);
}, t.prototype.getPrograms = function () {
return [this.getProgram()];
}, t.prototype.getDrawMode = function () {
return 4;
}, t.prototype.ensureResources = function (e) {
return 0;
}, t.prototype.ensureAttributeLocations = function (e) {
this.getProgram().assertCompatibleVertexAttributeLocations(e);
}, t = o([i.subclass("esri.views.3d.webgl-engine.lib.GLMaterial")], t);
}(i.declared(s.AutoDisposable));
t.GLMaterial = n;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/GLMaterialTexture.js":
/*!***********************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/GLMaterialTexture.js ***!
\***********************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineLibGLMaterialTextureJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../core/tsSupport/assignHelper */
"./node_modules/arcgis-js-api/core/tsSupport/assignHelper.js"), __webpack_require__(
/*! ../../../../core/tsSupport/extendsHelper */
"./node_modules/arcgis-js-api/core/tsSupport/extendsHelper.js"), __webpack_require__(
/*! ./DefaultTextureUnits */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/DefaultTextureUnits.js"), __webpack_require__(
/*! ./GLMaterial */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/GLMaterial.js"), __webpack_require__(
/*! ../materials/internal/MaterialUtil */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/materials/internal/MaterialUtil.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, t, r, i, u, n, s) {
var x = function (e) {
function t(t) {
var r = e.call(this, t) || this,
i = t.textureRep;
r.textureRep = i, r.textureId = t.textureId, r.initTransparent = !!t.initTextureTransparent;
var u = function u(e) {
return s.acquireIfNotUndefined(e, i, r.initTransparent);
};
return r.glTextureRef = u(r.textureId), t.normalTextureId && (r.glTextureRefNormal = u(t.normalTextureId)), t.emissiveTextureId && (r.glTextureRefEmission = u(t.emissiveTextureId)), t.occlusionTextureId && (r.glTextureRefOcclusion = u(t.occlusionTextureId)), t.metallicRoughnessTextureId && (r.glTextureRefRoughnessMetallness = u(t.metallicRoughnessTextureId)), r;
}
return i(t, e), t.prototype.dispose = function () {
s.releaseIfNotUndefined(this.textureId, this.textureRep);
}, t.prototype.updateTexture = function (e) {
e !== this.textureId && (s.releaseIfNotUndefined(this.textureId, this.textureRep), this.textureId = e, this.glTextureRef = s.acquireIfNotUndefined(this.textureId, this.textureRep, this.initTransparent));
}, t.prototype.bindTexture = function (e, t) {
null != this.glTextureRef && (t.setUniform1i("tex", u.DefaultTextureUnits.DIFFUSE), e.bindTexture(this.glTextureRef.getGLTexture(), u.DefaultTextureUnits.DIFFUSE)), this.glTextureRefNormal && (t.setUniform1i("normalTexture", u.DefaultTextureUnits.NORMAL), e.bindTexture(this.glTextureRefNormal.getGLTexture(), u.DefaultTextureUnits.NORMAL)), this.glTextureRefEmission && (t.setUniform1i("texEmission", u.DefaultTextureUnits.EMISSION), e.bindTexture(this.glTextureRefEmission.getGLTexture(), u.DefaultTextureUnits.EMISSION)), this.glTextureRefOcclusion && (t.setUniform1i("texOcclusion", u.DefaultTextureUnits.OCCLUSION), e.bindTexture(this.glTextureRefOcclusion.getGLTexture(), u.DefaultTextureUnits.OCCLUSION)), this.glTextureRefRoughnessMetallness && (t.setUniform1i("texMetallicRoughness", u.DefaultTextureUnits.METALLIC_ROUGHNESS), e.bindTexture(this.glTextureRefRoughnessMetallness.getGLTexture(), u.DefaultTextureUnits.METALLIC_ROUGHNESS));
}, t.prototype.bindTextureScale = function (e, t) {
var r = this.glTextureRef && this.glTextureRef.getGLTexture();
r && r.descriptor.textureCoordinateScaleFactor ? t.setUniform2fv("textureCoordinateScaleFactor", r.descriptor.textureCoordinateScaleFactor) : t.setUniform2f("textureCoordinateScaleFactor", 1, 1);
}, t;
}(n.GLMaterial);
return function (e) {
function t(e, t) {
return r({}, e, t);
}
e.makeCtorParameters = t;
}(x || (x = {})), x;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/Geometry.js":
/*!**************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/Geometry.js ***!
\**************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineLibGeometryJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ./BoundingInfo */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/BoundingInfo.js"), __webpack_require__(
/*! ./ComponentUtils */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/ComponentUtils.js"), __webpack_require__(
/*! ./geometryDataUtils */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/geometryDataUtils.js"), __webpack_require__(
/*! ./IdGen */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/IdGen.js"), __webpack_require__(
/*! ./Util */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/Util.js"), __webpack_require__(
/*! ./Util */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/Util.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (t, e, n, o, i, r, a, u) {
return function () {
function t(e, n, o) {
this.singleUse = !1, this._boundingInfo = null, this._componentAABBs = null, this._id = t.__idGen.gen(n), this._data = e, this._boundingInfo = o;
}
return Object.defineProperty(t.prototype, "id", {
get: function get() {
return this._id;
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(t.prototype, "data", {
get: function get() {
return this._data;
},
enumerable: !0,
configurable: !0
}), t.prototype.getIndices = function (t) {
return this.data.getIndices(t);
}, Object.defineProperty(t.prototype, "indexCount", {
get: function get() {
return this.data.indexCount;
},
enumerable: !0,
configurable: !0
}), t.prototype.getAttribute = function (t) {
return this.data.getAttribute(t);
}, Object.defineProperty(t.prototype, "componentCount", {
get: function get() {
return o.componentCount(this.data.componentOffsets);
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(t.prototype, "componentOffsets", {
get: function get() {
return this.data.componentOffsets;
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(t.prototype, "vertexCount", {
get: function get() {
return this.data.indexCount;
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(t.prototype, "faceCount", {
get: function get() {
return this.data.indexCount / 3;
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(t.prototype, "boundingInfo", {
get: function get() {
return null == this._boundingInfo && (this._boundingInfo = this._calculateBoundingInfo()), this._boundingInfo;
},
enumerable: !0,
configurable: !0
}), t.prototype.computeAttachmentOrigin = function (t) {
return "triangle" === this.data.primitiveType ? this.computeAttachmentOriginTriangles(t) : this.computeAttachmentOriginPoints(t);
}, t.prototype.computeAttachmentOriginTriangles = function (t) {
var e = this.getIndices(u.VertexAttrConstants.POSITION),
n = this.getAttribute(u.VertexAttrConstants.POSITION);
return i.computeAttachmentOriginTriangles(n, e, t);
}, t.prototype.computeAttachmentOriginPoints = function (t) {
var e = this.getIndices(u.VertexAttrConstants.POSITION),
n = this.getAttribute(u.VertexAttrConstants.POSITION);
return i.computeAttachmentOriginPoints(n, e, t);
}, t.prototype.invalidateBoundingInfo = function () {
this._boundingInfo = null, this._componentAABBs = null;
}, t.prototype.getComponentAABB = function (t, e) {
null == this._componentAABBs && (this._componentAABBs = this._computeComponentAABBs());
for (var n = 0; n < 6; n++) e[n] = this._componentAABBs[6 * t + n];
return e;
}, t.prototype._computeComponentAABBs = function () {
for (var t = this.componentCount, e = new Float32Array(6 * t), n = 0; n < t; n++) this._calculateAABB(n, e, 6 * n);
return e;
}, t.prototype._calculateAABB = function (t, e, n) {
for (var o = this.data.getIndices(u.VertexAttrConstants.POSITION), i = this.data.getAttribute(u.VertexAttrConstants.POSITION), r = this.data.componentOffsets, a = r.length ? r[t] : 0, s = r.length ? r[t + 1] : o.length, c = 1 / 0, p = 1 / 0, d = 1 / 0, f = -1 / 0, g = -1 / 0, h = -1 / 0, l = i.offsetIdx, m = i.strideIdx, A = a; A < s; A++) {
var b = l + m * o[A],
I = i.data[b],
O = i.data[b + 1],
y = i.data[b + 2];
c = Math.min(c, I), p = Math.min(p, O), d = Math.min(d, y), f = Math.max(f, I), g = Math.max(g, O), h = Math.max(h, y);
}
e[n] = c, e[n + 1] = p, e[n + 2] = d, e[n + 3] = f, e[n + 4] = g, e[n + 5] = h;
}, t.prototype._calculateBoundingInfo = function () {
var t = this.data.getIndices(u.VertexAttrConstants.POSITION),
e = this.data.getAttribute(u.VertexAttrConstants.POSITION),
o = "triangle" === this.data.primitiveType ? 3 : 1;
if (0 === t.length) {
t = new Uint32Array(o);
for (var r = 0; r < o; ++r) t[r] = r;
}
var s = t.length;
a.assert(s % o == 0, "Indexing error: " + s.toFixed(0) + " not divisible by " + o.toFixed(0));
var c = i.generateDefaultIndexArray(s / o);
return new n(c, o, t, e);
}, t.__idGen = new r.IdGen(), t;
}();
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/GeometryData.js":
/*!******************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/GeometryData.js ***!
\******************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineLibGeometryDataJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ./ComponentUtils */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/ComponentUtils.js"), __webpack_require__(
/*! ./geometryDataUtils */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/geometryDataUtils.js"), __webpack_require__(
/*! ./Util */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/Util.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (t, e, i, r, n) {
function s(t) {
var e = n.getFirstObjectValue(t);
return null == e ? 0 : e.data.length / e.size;
}
Object.defineProperty(e, "__esModule", {
value: !0
});
var o = function () {
function t(e, n, o, a) {
void 0 === n && (n = t.DefaultIndices), void 0 === o && (o = t.DefaultOffsets), void 0 === a && (a = "triangle"), this.preinterleaved = !1;
var u = {};
for (var f in e) {
var c = e[f],
d = c.data,
p = c.size;
u[f] = {
data: d,
size: p,
offsetIdx: 0,
strideIdx: p
};
}
if (n === t.DefaultIndices) {
var l = s(u),
h = r.generateDefaultIndexArray(l);
n = {};
for (var g in u) n[g] = h;
}
this._id = r.getNewId(), this._vertexAttributes = u, this._indices = n, this._componentOffsets = i.createOffsets(o), this._primitiveType = a;
}
return Object.defineProperty(t.prototype, "id", {
get: function get() {
return this._id;
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(t.prototype, "vertexAttributes", {
get: function get() {
return this._vertexAttributes;
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(t.prototype, "indices", {
get: function get() {
return this._indices;
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(t.prototype, "componentOffsets", {
get: function get() {
return this._componentOffsets;
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(t.prototype, "indexCount", {
get: function get() {
var t = n.getFirstObjectValue(this._indices);
return null == t ? 0 : t.length;
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(t.prototype, "primitiveType", {
get: function get() {
return this._primitiveType;
},
enumerable: !0,
configurable: !0
}), t.prototype.getVertexAttr = function () {
return this.vertexAttributes;
}, t.prototype.toRenderData = function () {
return {
id: this._id.toString(),
preinterleaved: !1,
indices: this._indices,
vertexAttr: this._vertexAttributes
};
}, t.prototype.getIndices = function (t) {
return this._indices[t];
}, t.prototype.getAttribute = function (t) {
return this._vertexAttributes[t];
}, t.prototype.estimateGpuMemoryUsage = function () {
var t = 0;
if (this._indices[n.VertexAttrConstants.POSITION]) {
var e = 3;
t += this._indices[n.VertexAttrConstants.POSITION].length * e * 4;
}
if (this._indices[n.VertexAttrConstants.NORMAL]) {
var e = 3;
t += this._indices[n.VertexAttrConstants.NORMAL].length * e * 4;
}
if (this._indices[n.VertexAttrConstants.UV0]) {
var e = 2;
t += this._indices[n.VertexAttrConstants.UV0].length * e * 4;
}
if (this._indices[n.VertexAttrConstants.COLOR]) {
var e = 1;
t += this._indices[n.VertexAttrConstants.COLOR].length * e * 4;
}
return t;
}, t.DefaultIndices = {}, t.DefaultOffsets = new Uint32Array(0), t;
}();
e.GeometryData = o;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/GeometryRecord.js":
/*!********************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/GeometryRecord.js ***!
\********************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineLibGeometryRecordJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../core/ObjectPool */
"./node_modules/arcgis-js-api/core/ObjectPool.js"), __webpack_require__(
/*! ../../../../core/libs/gl-matrix-2/vec3 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec3.js"), __webpack_require__(
/*! ./IdGen */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/IdGen.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (t, r, i, n, e) {
return function () {
function t(r, i, n, e, o, a) {
this.id = t._idGen.gen(r && r.id), this.geometry = r, this.material = i, this.transformation = n, this.instanceParameters = e, this.origin = o, this.shaderTransformation = a;
}
return t.prototype.getStaticTransformation = function () {
return this.transformation;
}, t.prototype.getShaderTransformation = function () {
return this.shaderTransformation ? this.shaderTransformation(this.transformation) : this.transformation;
}, t.prototype.computeAttachmentOrigin = function (t) {
return !!(this.material.computeAttachmentOrigin ? this.material.computeAttachmentOrigin(this.geometry, t) : this.geometry.computeAttachmentOrigin(t)) && (n.vec3.transformMat4(t, t, this.getStaticTransformation()), !0);
}, t._idGen = new e.IdGen(), t.pool = new i(t, !0), t;
}();
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/GeometryUtil.js":
/*!******************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/GeometryUtil.js ***!
\******************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineLibGeometryUtilJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../core/libs/gl-matrix-2/vec3 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec3.js"), __webpack_require__(
/*! ../../../../core/libs/gl-matrix-2/vec3f32 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec3f32.js"), __webpack_require__(
/*! ../../../../core/libs/gl-matrix-2/vec3f64 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec3f64.js"), __webpack_require__(
/*! ../../support/geometryUtils */
"./node_modules/arcgis-js-api/views/3d/support/geometryUtils.js"), __webpack_require__(
/*! ./BufferVectorMath */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/BufferVectorMath.js"), __webpack_require__(
/*! ./GeometryData */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/GeometryData.js"), __webpack_require__(
/*! ./Util */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/Util.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (t, e, r, a, n, o, s, c, v) {
var l,
i = s.Vec3Compact;
!function (t) {
function e(t) {
Array.isArray(t) || (t = [t, t, t]);
for (var e = new Float32Array(24), r = 0; r < 8; r++) e[3 * r] = a[r][0] * t[0], e[3 * r + 1] = a[r][1] * t[1], e[3 * r + 2] = a[r][2] * t[2];
var i = {};
i[v.VertexAttrConstants.POSITION] = new Uint32Array(s), i[v.VertexAttrConstants.NORMAL] = new Uint32Array(l), i[v.VertexAttrConstants.UV0] = new Uint32Array(f);
var A = {};
return A[v.VertexAttrConstants.POSITION] = {
size: 3,
data: e
}, A[v.VertexAttrConstants.NORMAL] = {
size: 3,
data: new Float32Array(n)
}, A[v.VertexAttrConstants.UV0] = {
size: 2,
data: new Float32Array(o)
}, new c.GeometryData(A, i);
}
for (var r = .5, a = [[-r, -r, r], [r, -r, r], [r, r, r], [-r, r, r], [-r, -r, -r], [r, -r, -r], [r, r, -r], [-r, r, -r]], n = [0, 0, 1, -1, 0, 0, 1, 0, 0, 0, -1, 0, 0, 1, 0, 0, 0, -1], o = [0, 0, 1, 0, 1, 1, 0, 1], s = [0, 1, 2, 2, 3, 0, 4, 0, 3, 3, 7, 4, 1, 5, 6, 6, 2, 1, 1, 0, 4, 4, 5, 1, 3, 2, 6, 6, 7, 3, 5, 4, 7, 7, 6, 5], l = new Array(36), i = 0; i < 6; i++) for (var A = 0; A < 6; A++) l[6 * i + A] = i;
for (var f = new Array(36), i = 0; i < 6; i++) f[6 * i + 0] = 0, f[6 * i + 1] = 1, f[6 * i + 2] = 2, f[6 * i + 3] = 2, f[6 * i + 4] = 3, f[6 * i + 5] = 0;
t.createGeometry = e;
}(l || (l = {}));
var A;
!function (t) {
function e(t) {
Array.isArray(t) || (t = [t, t, t]);
for (var e = new Float32Array(18), r = 0; r < 6; r++) e[3 * r] = a[r][0] * t[0], e[3 * r + 1] = a[r][1] * t[1], e[3 * r + 2] = a[r][2] * t[2];
var l = {};
l[v.VertexAttrConstants.POSITION] = new Uint32Array(o), l[v.VertexAttrConstants.NORMAL] = new Uint32Array(s);
var i = {};
return i[v.VertexAttrConstants.POSITION] = {
size: 3,
data: e
}, i[v.VertexAttrConstants.NORMAL] = {
size: 3,
data: new Float32Array(n)
}, new c.GeometryData(i, l);
}
var r = .5,
a = [[-r, 0, -r], [r, 0, -r], [r, 0, r], [-r, 0, r], [0, -r, 0], [0, r, 0]],
n = [0, 1, -1, 1, 1, 0, 0, 1, 1, -1, 1, 0, 0, -1, -1, 1, -1, 0, 0, -1, 1, -1, -1, 0],
o = [5, 1, 0, 5, 2, 1, 5, 3, 2, 5, 0, 3, 4, 0, 1, 4, 1, 2, 4, 2, 3, 4, 3, 0],
s = [0, 0, 0, 1, 1, 1, 2, 2, 2, 3, 3, 3, 4, 4, 4, 5, 5, 5, 6, 6, 6, 7, 7, 7];
t.createGeometry = e;
}(A || (A = {}));
var f;
!function (t) {
function e(t) {
Array.isArray(t) || (t = [t, t, t]);
for (var e = new Float32Array(12), r = 0; r < 4; r++) e[3 * r] = u[r][0] * t[0], e[3 * r + 1] = u[r][1] * t[1], e[3 * r + 2] = u[r][2] * t[2];
var a = {};
a[v.VertexAttrConstants.POSITION] = new Uint32Array(O), a[v.VertexAttrConstants.NORMAL] = new Uint32Array(h);
var n = {};
return n[v.VertexAttrConstants.POSITION] = {
size: 3,
data: e
}, n[v.VertexAttrConstants.NORMAL] = {
size: 3,
data: new Float32Array(m)
}, new c.GeometryData(n, a);
}
var n = .5,
o = a.vec3f32.fromValues(-n, 0, -n),
s = a.vec3f32.fromValues(n, 0, -n),
l = a.vec3f32.fromValues(0, 0, n),
i = a.vec3f32.fromValues(0, .5, 0),
A = a.vec3f32.create(),
f = a.vec3f32.create(),
y = a.vec3f32.create(),
V = a.vec3f32.create(),
d = a.vec3f32.create();
r.vec3.subtract(A, o, i), r.vec3.subtract(f, o, s), r.vec3.cross(y, A, f), r.vec3.normalize(y, y), r.vec3.subtract(A, s, i), r.vec3.subtract(f, s, l), r.vec3.cross(V, A, f), r.vec3.normalize(V, V), r.vec3.subtract(A, l, i), r.vec3.subtract(f, l, o), r.vec3.cross(d, A, f), r.vec3.normalize(d, d);
var u = [o, s, l, i],
m = [0, -1, 0, y[0], y[1], y[2], V[0], V[1], V[2], d[0], d[1], d[2]],
O = [0, 1, 2, 3, 1, 0, 3, 2, 1, 3, 0, 2],
h = [0, 0, 0, 1, 1, 1, 2, 2, 2, 3, 3, 3];
t.createGeometry = e;
}(f || (f = {}));
var y;
!function (t) {
function e(t, e, r, a, n, o, s) {
t = t || 50, a = void 0 !== a ? a : -Math.PI, n = void 0 !== n ? n : 2 * Math.PI, o = void 0 !== o ? o : .5 * -Math.PI, s = void 0 !== s ? s : Math.PI;
for (var l = Math.max(3, Math.floor(e) || 8), i = Math.max(2, Math.floor(r) || 6), A = (l + 1) * (i + 1), f = new Float32Array(3 * A), y = new Float32Array(3 * A), V = new Float32Array(2 * A), d = [], u = 0, m = 0; m <= i; m++) {
for (var O = [], h = m / i, x = o + h * s, C = Math.cos(x), w = 0; w <= l; w++) {
var I = w / l,
g = a + I * n,
M = Math.cos(g) * C,
z = Math.sin(x),
N = -Math.sin(g) * C;
f[3 * u] = M * t, f[3 * u + 1] = z * t, f[3 * u + 2] = N * t, y[3 * u] = M, y[3 * u + 1] = z, y[3 * u + 2] = N, V[2 * u] = I, V[2 * u + 1] = h, O.push(u), ++u;
}
d.push(O);
}
var P = new Uint32Array(2 * l * (i - 1) * 3);
u = 0;
for (var m = 0; m < i; m++) for (var w = 0; w < l; w++) {
var U = d[m][w],
G = d[m][w + 1],
F = d[m + 1][w + 1],
S = d[m + 1][w];
0 === m ? (P[u++] = U, P[u++] = F, P[u++] = S) : m === i - 1 ? (P[u++] = U, P[u++] = G, P[u++] = F) : (P[u++] = U, P[u++] = G, P[u++] = F, P[u++] = F, P[u++] = S, P[u++] = U);
}
v.assert(u === P.length);
var p = {};
p[v.VertexAttrConstants.POSITION] = P, p[v.VertexAttrConstants.NORMAL] = P, p[v.VertexAttrConstants.UV0] = P;
var T = {};
return T[v.VertexAttrConstants.POSITION] = {
size: 3,
data: f
}, T[v.VertexAttrConstants.NORMAL] = {
size: 3,
data: y
}, T[v.VertexAttrConstants.UV0] = {
size: 2,
data: V
}, new c.GeometryData(T, p);
}
function y(t, e, r) {
function a(e, r) {
var a;
e > r && (a = [r, e], e = a[0], r = a[1]);
var o = e.toString() + "." + r.toString();
if (f[o]) return f[o];
var s = n.length;
return n.length += 3, i.add(n, 3 * e, n, 3 * r, n, s), i.scale(n, s, t / i.length(n, s)), s /= 3, f[o] = s, s;
}
var n,
o,
s = t;
if (r) n = [0, -1, 0, 1, 0, 0, 0, 0, 1, -1, 0, 0, 0, 0, -1, 0, 1, 0], o = new Uint32Array([0, 1, 2, 0, 2, 3, 0, 3, 4, 0, 4, 1, 1, 5, 2, 2, 5, 3, 3, 5, 4, 4, 5, 1]);else {
var l = s * (1 + Math.sqrt(5)) / 2;
n = [-s, l, 0, s, l, 0, -s, -l, 0, s, -l, 0, 0, -s, l, 0, s, l, 0, -s, -l, 0, s, -l, l, 0, -s, l, 0, s, -l, 0, -s, -l, 0, s], o = new Uint32Array([0, 11, 5, 0, 5, 1, 0, 1, 7, 0, 7, 10, 0, 10, 11, 1, 5, 9, 5, 11, 4, 11, 10, 2, 10, 7, 6, 7, 1, 8, 3, 9, 4, 3, 4, 2, 3, 2, 6, 3, 6, 8, 3, 8, 9, 4, 9, 5, 2, 4, 11, 6, 2, 10, 8, 6, 7, 9, 8, 1]);
}
for (var A = 0; A < n.length; A += 3) i.scale(n, A, t / i.length(n, A));
for (var f = {}, A = 0; A < e; A++) {
for (var y = o.length, V = new Uint32Array(4 * y), d = 0; d < y; d += 3) {
var u = o[d],
m = o[d + 1],
O = o[d + 2],
h = a(u, m),
x = a(m, O),
C = a(O, u),
w = 4 * d;
V[w] = u, V[w + 1] = h, V[w + 2] = C, V[w + 3] = m, V[w + 4] = x, V[w + 5] = h, V[w + 6] = O, V[w + 7] = C, V[w + 8] = x, V[w + 9] = h, V[w + 10] = x, V[w + 11] = C;
}
o = V, f = {};
}
for (var I = new Float32Array(n), A = 0; A < I.length; A += 3) i.normalize(I, A);
var g = {};
g[v.VertexAttrConstants.POSITION] = o, g[v.VertexAttrConstants.NORMAL] = o;
var M = {};
return M[v.VertexAttrConstants.POSITION] = {
size: 3,
data: new Float32Array(n)
}, M[v.VertexAttrConstants.NORMAL] = {
size: 3,
data: I
}, new c.GeometryData(M, g);
}
function m(t, e, r, a, n, o, s, l) {
var i = e ? new Float64Array([e[0], e[1], e[2]]) : new Float32Array([0, 0, 0]),
A = t ? new Float32Array([t[0], t[1], t[2]]) : new Float32Array([0, 0, 1]),
f = o ? new Float32Array(o) : new Float32Array([0, 0]),
y = r ? new Uint8Array([255 * r[0], 255 * r[1], 255 * r[2], r.length > 3 ? 255 * r[3] : 255]) : new Uint8Array([255, 255, 255, 255]),
V = null != a && 2 === a.length ? new Float32Array(a) : new Float32Array([1, 1]),
d = {};
if (d[v.VertexAttrConstants.POSITION] = {
size: 3,
data: i
}, d[v.VertexAttrConstants.NORMAL] = {
size: 3,
data: A
}, d[v.VertexAttrConstants.UV0] = {
size: f.length,
data: f
}, d[v.VertexAttrConstants.COLOR] = {
size: 4,
data: y
}, d[v.VertexAttrConstants.SIZE] = {
size: 2,
data: V
}, null != n) {
var u = new Float32Array([n[0], n[1], n[2], n[3]]);
d[v.VertexAttrConstants.AUXPOS1] = {
size: 4,
data: u
};
}
if (null != s) {
var m = new Float32Array([s[0], s[1], s[2], s[3]]);
d[v.VertexAttrConstants.AUXPOS2] = {
size: 4,
data: m
};
}
return null != l ? (c.GeometryData.call(l, d, c.GeometryData.DefaultIndices, c.GeometryData.DefaultOffsets, "point"), l) : new c.GeometryData(d, c.GeometryData.DefaultIndices, c.GeometryData.DefaultOffsets, "point");
}
function O(t, e, r, a, n, o, s, c) {
var l = c.vertexAttributes;
if (null != t) {
var i = l[v.VertexAttrConstants.NORMAL].data;
i[0] = t[0], i[1] = t[1], i[2] = t[2];
}
if (null != e) {
var i = l[v.VertexAttrConstants.POSITION].data;
i[0] = e[0], i[1] = e[1], i[2] = e[2];
}
if (null != r) {
var i = l[v.VertexAttrConstants.COLOR].data;
i[0] = r[0], i[1] = r[1], i[2] = r[2], i[3] = r[3];
}
if (null != a) {
var i = l[v.VertexAttrConstants.SIZE].data;
i[0] = a[0], i[1] = a[1];
}
if (null != n) {
var i = l[v.VertexAttrConstants.AUXPOS1].data;
i[0] = n[0], i[1] = n[1], i[2] = n[2], i[3] = n[3];
}
if (null != o) {
var i = l[v.VertexAttrConstants.UV0].data;
i[0] = o[0], i[1] = o[1];
}
if (null != s) {
var i = l[v.VertexAttrConstants.AUXPOS2].data;
i[0] = s[0], i[1] = s[1], i[2] = s[2], i[3] = s[3];
}
return c;
}
function h(t, e) {
for (var r = new Float32Array(3 * t.length), a = new Float32Array(e ? 3 * t.length : 3), n = new Uint32Array(t.length), o = new Uint32Array(t.length), s = 0; s < t.length; s++) r[3 * s] = t[s][0], r[3 * s + 1] = t[s][1], r[3 * s + 2] = t[s][2], e && (a[3 * s] = e[s][0], a[3 * s + 1] = e[s][1], a[3 * s + 2] = e[s][2]), n[s] = s, o[s] = 0;
e || (a[0] = 0, a[1] = 1, a[2] = 0);
var l = new Float32Array(2);
l[0] = 0, l[1] = 0;
var i = {};
i[v.VertexAttrConstants.POSITION] = n, i[v.VertexAttrConstants.NORMAL] = e ? n : o, i[v.VertexAttrConstants.UV0] = o;
var A = {};
return A[v.VertexAttrConstants.POSITION] = {
size: 3,
data: r
}, A[v.VertexAttrConstants.NORMAL] = {
size: 3,
data: a
}, A[v.VertexAttrConstants.UV0] = {
size: 2,
data: l
}, new c.GeometryData(A, i, c.GeometryData.DefaultOffsets, "point");
}
function x() {
var t = new Float32Array([0, 0, 0, 0, 0, 100, 100, 0, 0]),
e = new Uint32Array([0, 1, 2]),
r = new Float32Array([0, 1, 0]),
a = new Uint32Array([0, 0, 0]),
n = new Float32Array([0, 0]),
o = new Uint32Array([0, 0, 0]),
s = {};
s[v.VertexAttrConstants.POSITION] = e, s[v.VertexAttrConstants.NORMAL] = a, s[v.VertexAttrConstants.UV0] = o;
var l = {};
return l[v.VertexAttrConstants.POSITION] = {
size: 3,
data: t
}, l[v.VertexAttrConstants.NORMAL] = {
size: 3,
data: r
}, l[v.VertexAttrConstants.UV0] = {
size: 2,
data: n
}, new c.GeometryData(l, s);
}
function C(t) {
var e = new Float32Array(12);
if (t) for (var r = 0; r < 4; r++) for (var a = 0; a < 3; a++) e[3 * r + a] = t[r][a];else e[0] = -1, e[1] = -1, e[2] = 0, e[3] = 1, e[4] = -1, e[5] = 0, e[6] = 1, e[7] = 1, e[8] = 0, e[9] = -1, e[10] = 1, e[11] = 0;
var n = new Uint32Array([0, 1, 2, 2, 3, 0]),
o = new Float32Array([0, 0, 1]),
s = new Uint32Array([0, 0, 0, 0, 0, 0]),
l = new Float32Array([0, 0, 1, 0, 1, 1, 0, 1]),
i = new Uint8Array([255, 255, 255, 255]),
A = {};
A[v.VertexAttrConstants.POSITION] = n, A[v.VertexAttrConstants.NORMAL] = s, A[v.VertexAttrConstants.UV0] = n, A[v.VertexAttrConstants.COLOR] = s;
var f = {};
return f[v.VertexAttrConstants.POSITION] = {
size: 3,
data: e
}, f[v.VertexAttrConstants.NORMAL] = {
size: 3,
data: o
}, f[v.VertexAttrConstants.UV0] = {
size: 2,
data: l
}, f[v.VertexAttrConstants.COLOR] = {
size: 4,
data: i
}, new c.GeometryData(f, A);
}
function w(t, e, r, n, o, s) {
void 0 === o && (o = !0), void 0 === s && (s = !0);
var l = 0,
i = e,
A = t,
f = a.vec3f32.fromValues(0, l, 0),
y = a.vec3f32.fromValues(0, l + A, 0),
V = a.vec3f32.fromValues(0, -1, 0),
d = a.vec3f32.fromValues(0, 1, 0);
n && (l = A, y = a.vec3f32.fromValues(0, 0, 0), f = a.vec3f32.fromValues(0, l, 0), V = a.vec3f32.fromValues(0, 1, 0), d = a.vec3f32.fromValues(0, -1, 0));
var u = [y, f],
m = [V, d],
O = r + 2,
h = Math.sqrt(A * A + i * i);
if (n) for (var x = r - 1; x >= 0; x--) {
var C = x * (2 * Math.PI / r),
w = a.vec3f32.fromValues(Math.cos(C) * i, l, Math.sin(C) * i);
u.push(w);
var I = a.vec3f32.fromValues(A * Math.cos(C) / h, -i / h, A * Math.sin(C) / h);
m.push(I);
} else for (var x = 0; x < r; x++) {
var C = x * (2 * Math.PI / r),
w = a.vec3f32.fromValues(Math.cos(C) * i, l, Math.sin(C) * i);
u.push(w);
var I = a.vec3f32.fromValues(A * Math.cos(C) / h, i / h, A * Math.sin(C) / h);
m.push(I);
}
var g = new Uint32Array(2 * (r + 2) * 3),
M = new Uint32Array(2 * (r + 2) * 3),
z = 0,
N = 0;
if (o) {
for (var x = 3; x < u.length; x++) g[z++] = 1, g[z++] = x - 1, g[z++] = x, M[N++] = 0, M[N++] = 0, M[N++] = 0;
g[z++] = u.length - 1, g[z++] = 2, g[z++] = 1, M[N++] = 0, M[N++] = 0, M[N++] = 0;
}
if (s) {
for (var x = 3; x < u.length; x++) g[z++] = x, g[z++] = x - 1, g[z++] = 0, M[N++] = x, M[N++] = x - 1, M[N++] = 1;
g[z++] = 0, g[z++] = 2, g[z++] = u.length - 1, M[N++] = 1, M[N++] = 2, M[N++] = m.length - 1;
}
for (var P = new Float32Array(3 * O), x = 0; x < O; x++) P[3 * x] = u[x][0], P[3 * x + 1] = u[x][1], P[3 * x + 2] = u[x][2];
for (var U = new Float32Array(3 * O), x = 0; x < O; x++) U[3 * x] = m[x][0], U[3 * x + 1] = m[x][1], U[3 * x + 2] = m[x][2];
var G = {};
G[v.VertexAttrConstants.POSITION] = g, G[v.VertexAttrConstants.NORMAL] = M;
var F = {};
return F[v.VertexAttrConstants.POSITION] = {
size: 3,
data: P
}, F[v.VertexAttrConstants.NORMAL] = {
size: 3,
data: U
}, new c.GeometryData(F, G);
}
function I(t, e, n, o, s, l) {
var i = o ? a.vec3f32.clone(o) : a.vec3f32.fromValues(1, 0, 0),
A = s ? a.vec3f32.clone(s) : a.vec3f32.fromValues(0, 0, 0),
f = void 0 === l || l,
y = a.vec3f32.create();
r.vec3.normalize(y, i);
var V = a.vec3f32.create();
r.vec3.scale(V, y, Math.abs(t));
var d = a.vec3f32.create();
r.vec3.scale(d, V, -.5), r.vec3.add(d, d, A);
var u = a.vec3f32.fromValues(0, 1, 0);
Math.abs(1 - r.vec3.dot(y, u)) < .2 && r.vec3.set(u, 0, 0, 1);
var m = a.vec3f32.create();
r.vec3.cross(m, y, u), r.vec3.normalize(m, m), r.vec3.cross(u, m, y);
var O = 2 * n + (f ? 2 : 0),
h = n + (f ? 2 : 0),
x = new Float32Array(3 * O),
C = new Float32Array(3 * h),
w = new Float32Array(2 * O),
I = new Uint32Array(3 * n * (f ? 4 : 2)),
g = new Uint32Array(3 * n * (f ? 4 : 2));
f && (x[3 * (O - 2) + 0] = d[0], x[3 * (O - 2) + 1] = d[1], x[3 * (O - 2) + 2] = d[2], w[2 * (O - 2)] = 0, w[2 * (O - 2) + 1] = 0, x[3 * (O - 1) + 0] = x[3 * (O - 2) + 0] + V[0], x[3 * (O - 1) + 1] = x[3 * (O - 2) + 1] + V[1], x[3 * (O - 1) + 2] = x[3 * (O - 2) + 2] + V[2], w[2 * (O - 1)] = 1, w[2 * (O - 1) + 1] = 1, C[3 * (h - 2) + 0] = -y[0], C[3 * (h - 2) + 1] = -y[1], C[3 * (h - 2) + 2] = -y[2], C[3 * (h - 1) + 0] = y[0], C[3 * (h - 1) + 1] = y[1], C[3 * (h - 1) + 2] = y[2]);
for (var M = function M(t, e, r) {
I[t] = e, g[t] = r;
}, z = 0, N = a.vec3f32.create(), P = a.vec3f32.create(), U = 0; U < n; U++) {
var G = U * (2 * Math.PI / n);
r.vec3.scale(N, u, Math.sin(G)), r.vec3.scale(P, m, Math.cos(G)), r.vec3.add(N, N, P), C[3 * U + 0] = N[0], C[3 * U + 1] = N[1], C[3 * U + 2] = N[2], r.vec3.scale(N, N, e), r.vec3.add(N, N, d), x[3 * U + 0] = N[0], x[3 * U + 1] = N[1], x[3 * U + 2] = N[2], w[2 * U + 0] = U / n, w[2 * U + 1] = 0, x[3 * (U + n) + 0] = x[3 * U + 0] + V[0], x[3 * (U + n) + 1] = x[3 * U + 1] + V[1], x[3 * (U + n) + 2] = x[3 * U + 2] + V[2], w[2 * (U + n) + 0] = U / n, w[2 * U + 1] = 1;
var F = (U + 1) % n;
M(z++, U, U), M(z++, U + n, U), M(z++, F, F), M(z++, F, F), M(z++, U + n, U), M(z++, F + n, F);
}
if (f) {
for (var U = 0; U < n; U++) {
var F = (U + 1) % n;
M(z++, O - 2, h - 2), M(z++, U, h - 2), M(z++, F, h - 2);
}
for (var U = 0; U < n; U++) {
var F = (U + 1) % n;
M(z++, U + n, h - 1), M(z++, O - 1, h - 1), M(z++, F + n, h - 1);
}
}
var S = {};
S[v.VertexAttrConstants.POSITION] = I, S[v.VertexAttrConstants.NORMAL] = g, S[v.VertexAttrConstants.UV0] = I;
var p = {};
return p[v.VertexAttrConstants.POSITION] = {
size: 3,
data: x
}, p[v.VertexAttrConstants.NORMAL] = {
size: 3,
data: C
}, p[v.VertexAttrConstants.UV0] = {
size: 2,
data: w
}, new c.GeometryData(p, S);
}
function g(e, r, a, n, o) {
a = a || 10, n = null == n || n, v.assert(e.length > 1);
for (var s = [[0, 0, 0]], c = [], l = [], i = 0; i < a; i++) {
c.push([0, -i - 1, -(i + 1) % a - 1]);
var A = i / a * 2 * Math.PI;
l.push([Math.cos(A) * r, Math.sin(A) * r]);
}
return t.createPathExtrusionGeometry(l, e, s, c, n, o);
}
function M(t, e, s, l, i, A) {
void 0 === A && (A = a.vec3f32.fromValues(0, 0, 0));
var f = t.length,
y = new Float32Array(e.length * f * 3 + (6 * s.length || 0)),
d = new Float32Array(e.length * f + (2 * s.length || 0)),
u = new Float32Array(e.length * f * 3 + (s ? 6 : 0)),
m = (e.length - 1) * f * 6 + 3 * l.length * 2,
O = new Uint32Array(m),
h = new Uint32Array(m),
x = 0,
C = 0,
w = 0,
I = 0,
g = 0,
M = a.vec3f32.create(),
z = a.vec3f32.create(),
N = a.vec3f32.create(),
P = a.vec3f32.create(),
U = a.vec3f32.create(),
G = a.vec3f32.create(),
F = a.vec3f32.create(),
S = n.vec3f64.create(),
T = a.vec3f32.create(),
R = a.vec3f32.create(),
L = a.vec3f32.create(),
D = a.vec3f32.create(),
b = a.vec3f32.create(),
E = o.plane.create();
r.vec3.set(T, 0, 1, 0), r.vec3.subtract(z, e[1], e[0]), r.vec3.normalize(z, z), i ? (r.vec3.add(S, e[0], A), r.vec3.normalize(N, S)) : r.vec3.set(N, 0, 0, 1), p(z, N, T, T, U, N, V), r.vec3.copy(P, N), r.vec3.copy(D, U);
for (var q = 0; q < s.length; q++) r.vec3.scale(G, U, s[q][0]), r.vec3.scale(S, N, s[q][2]), r.vec3.add(G, G, S), r.vec3.add(G, G, e[0]), y[x++] = G[0], y[x++] = G[1], y[x++] = G[2], d[w++] = 0;
u[C++] = -z[0], u[C++] = -z[1], u[C++] = -z[2];
for (var q = 0; q < l.length; q++) O[I++] = l[q][0] > 0 ? l[q][0] : -l[q][0] - 1 + s.length, O[I++] = l[q][1] > 0 ? l[q][1] : -l[q][1] - 1 + s.length, O[I++] = l[q][2] > 0 ? l[q][2] : -l[q][2] - 1 + s.length, h[g++] = 0, h[g++] = 0, h[g++] = 0;
for (var B = s.length, X = s.length - 1, k = 0; k < e.length; k++) {
var Z = !1;
if (k > 0) {
r.vec3.copy(M, z), k < e.length - 1 ? (r.vec3.subtract(z, e[k + 1], e[k]), r.vec3.normalize(z, z)) : Z = !0, r.vec3.add(R, M, z), r.vec3.normalize(R, R), r.vec3.add(L, e[k - 1], P), o.plane.fromPositionAndNormal(e[k], R, E);
o.plane.intersectRay(E, o.ray.wrap(L, M), S) ? (r.vec3.subtract(S, S, e[k]), r.vec3.normalize(N, S), r.vec3.cross(U, R, N), r.vec3.normalize(U, U)) : p(R, P, D, T, U, N, V), r.vec3.copy(P, N), r.vec3.copy(D, U);
}
i && (r.vec3.add(S, e[k], A), r.vec3.normalize(b, S));
for (var j = 0; j < f; j++) if (r.vec3.scale(G, U, t[j][0]), r.vec3.scale(S, N, t[j][1]), r.vec3.add(G, G, S), r.vec3.normalize(F, G), u[C++] = F[0], u[C++] = F[1], u[C++] = F[2], d[w++] = i ? r.vec3.dot(G, b) : G[2], r.vec3.add(G, G, e[k]), y[x++] = G[0], y[x++] = G[1], y[x++] = G[2], !Z) {
var H = (j + 1) % f;
O[I++] = B + j, O[I++] = B + f + j, O[I++] = B + H, O[I++] = B + H, O[I++] = B + f + j, O[I++] = B + f + H;
for (var J = 0; J < 6; J++) h[g++] = O[I - 6 + J] - X;
}
B += f;
}
for (var K = e[e.length - 1], q = 0; q < s.length; q++) r.vec3.scale(G, U, s[q][0]), r.vec3.scale(S, N, s[q][1]), r.vec3.add(G, G, S), r.vec3.add(G, G, K), y[x++] = G[0], y[x++] = G[1], y[x++] = G[2], d[w++] = 0;
var Q = C / 3;
u[C++] = z[0], u[C++] = z[1], u[C++] = z[2];
for (var W = B - f, q = 0; q < l.length; q++) O[I++] = l[q][0] >= 0 ? B + l[q][0] : -l[q][0] - 1 + W, O[I++] = l[q][2] >= 0 ? B + l[q][2] : -l[q][2] - 1 + W, O[I++] = l[q][1] >= 0 ? B + l[q][1] : -l[q][1] - 1 + W, h[g++] = Q, h[g++] = Q, h[g++] = Q;
var Y = {};
Y[v.VertexAttrConstants.POSITION] = O, Y[v.VertexAttrConstants.NORMAL] = h;
var $ = {};
return $[v.VertexAttrConstants.POSITION] = {
size: 3,
data: y
}, $.zOffset = {
size: 1,
data: d
}, $[v.VertexAttrConstants.NORMAL] = {
size: 3,
data: u
}, new c.GeometryData($, Y);
}
function z(t, e) {
v.assert(t.length > 1, "createPolylineGeometry(): polyline needs at least 2 points"), v.assert(3 === t[0].length, "createPolylineGeometry(): malformed vertex"), v.assert(void 0 === e || e.length === t.length, "createPolylineGeometry: need same number of points and normals"), v.assert(void 0 === e || 3 === e[0].length, "createPolylineGeometry(): malformed normal");
for (var r = new Float32Array(3 * t.length), a = new Uint32Array(2 * (t.length - 1)), n = 0, o = 0, s = 0; s < t.length; s++) {
for (var l = 0; l < 3; l++) r[n++] = t[s][l];
s > 0 && (a[o++] = s - 1, a[o++] = s);
}
var i = {},
A = {};
if (i[v.VertexAttrConstants.POSITION] = a, A[v.VertexAttrConstants.POSITION] = {
size: 3,
data: r
}, e) {
for (var f = new Float32Array(3 * e.length), y = 0, s = 0; s < t.length; s++) for (var l = 0; l < 3; l++) f[y++] = e[s][l];
i[v.VertexAttrConstants.NORMAL] = a, A[v.VertexAttrConstants.NORMAL] = {
size: 3,
data: f
};
}
return new c.GeometryData(A, i, c.GeometryData.DefaultOffsets, "line");
}
function N(t, e, r, a) {
for (var n, o, s = new Float32Array(18), l = [[-e, 0, a / 2], [r, 0, a / 2], [0, t, a / 2], [-e, 0, -a / 2], [r, 0, -a / 2], [0, t, -a / 2]], i = [0, 1, 2, 3, 0, 2, 2, 5, 3, 1, 4, 5, 5, 2, 1, 1, 0, 3, 3, 4, 1, 4, 3, 5], A = 0; A < 6; A++) s[3 * A] = l[A][0], s[3 * A + 1] = l[A][1], s[3 * A + 2] = l[A][2];
var f = (n = {}, n[v.VertexAttrConstants.POSITION] = new Uint32Array(i), n),
y = (o = {}, o[v.VertexAttrConstants.POSITION] = {
size: 3,
data: s
}, o);
return new c.GeometryData(y, f);
}
function P(t, e) {
for (var a = t.vertexAttributes[v.VertexAttrConstants.POSITION].data, n = 0; n < a.length; n += 3) {
var o = a[n],
s = a[n + 1],
c = a[n + 2];
r.vec3.set(d, o, s, c), r.vec3.transformMat4(d, d, e), a[n] = d[0], a[n + 1] = d[1], a[n + 2] = d[2];
}
}
function U(t, e) {
var r = e || [1, 1, 1, 1],
a = new Uint8Array(4);
a[0] = 255 * r[0], a[1] = 255 * r[1], a[2] = 255 * r[2], a[3] = 255 * (r.length > 3 ? r[3] : 1);
var n = {},
o = t.getVertexAttr();
for (var s in o) n[s] = o[s];
n[v.VertexAttrConstants.COLOR] = {
size: 4,
data: a
};
var l = {};
for (var s in t.indices) l[s] = t.indices[s];
var i = l[v.VertexAttrConstants.POSITION].length;
return l[v.VertexAttrConstants.COLOR] = new Uint32Array(i), t = new c.GeometryData(n, l, t.componentOffsets, t.primitiveType);
}
function G(t) {
for (var e = t.getVertexAttr(), a = t.indices, n = s.Vec3Compact.subtract, o = a.position.length / 3, c = new Float32Array(3 * o), l = e.position.data, i = 0, A = a.position, f = new Uint32Array(A.length), y = 0; y < A.length; y += 3) {
n(l, 3 * A[y], l, 3 * A[y + 2], u, 0), n(l, 3 * A[y], l, 3 * A[y + 1], d, 0), r.vec3.cross(d, d, u), r.vec3.normalize(d, d);
var V = i / 3;
c[i++] = d[0], c[i++] = d[1], c[i++] = d[2], f[y] = V, f[y + 1] = V, f[y + 2] = V;
}
e[v.VertexAttrConstants.NORMAL] = {
size: 3,
data: c,
offsetIdx: 0,
strideIdx: 3
}, a[v.VertexAttrConstants.NORMAL] = f;
}
function F(t, e) {
void 0 === e && (e = t);
var r = t.getVertexAttr(),
a = r.position.data,
n = r.normal.data,
o = e.getVertexAttr(),
s = o.position.data,
c = o.normal.data;
if (n) for (var v = 0; v < n.length; v += 3) {
var l = n[v + 1];
c[v + 1] = -n[v + 2], c[v + 2] = l;
}
if (a) for (var v = 0; v < a.length; v += 3) {
var l = a[v + 1];
s[v + 1] = -a[v + 2], s[v + 2] = l;
}
return e;
}
function S(t, e, a, n, o) {
return !(Math.abs(r.vec3.dot(e, t)) > o) && (r.vec3.cross(a, t, e), r.vec3.normalize(a, a), r.vec3.cross(n, a, t), r.vec3.normalize(n, n), !0);
}
function p(t, e, r, a, n, o, s) {
return S(t, e, n, o, s) || S(t, r, n, o, s) || S(t, a, n, o, s);
}
t.createBoxGeometry = l.createGeometry, t.createDiamondGeometry = A.createGeometry, t.createTetrahedronGeometry = f.createGeometry, t.createSphereGeometry = e, t.createPolySphereGeometry = y, t.createPointGeometry = m, t.updatePointGeometry = O, t.createPointArrayGeometry = h, t.createTriangleGeometry = x, t.createSquareGeometry = C, t.createConeGeometry = w, t.createCylinderGeometry = I, t.createTubeGeometry = g, t.createPathExtrusionGeometry = M, t.createPolylineGeometry = z, t.createExtrudedTriangle = N, t.transformInPlace = P, t.addVertexColors = U, t.addNormals = G, t.cgToGIS = F, t.makeOrthoBasisDirUp = S, t.makeOrthoBasisDirUpFallback = p;
}(y || (y = {}));
var V = .99619469809,
d = a.vec3f32.create(),
u = a.vec3f32.create();
return y;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/HighlightUtils.js":
/*!********************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/HighlightUtils.js ***!
\********************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineLibHighlightUtilsJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ./IdGen */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/IdGen.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, n, i) {
function r() {
return t.gen("highlight");
}
Object.defineProperty(n, "__esModule", {
value: !0
});
var t = new i.IdGen();
n.generateHighlightId = r;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/IdGen.js":
/*!***********************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/IdGen.js ***!
\***********************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineLibIdGenJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, n) {
Object.defineProperty(n, "__esModule", {
value: !0
});
var t = function () {
function e() {
this._count = 0;
}
return e.prototype.gen = function (e) {
return null == e && (e = "a"), e + "_" + this._count++;
}, e;
}();
n.IdGen = t;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/Intersector.js":
/*!*****************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/Intersector.js ***!
\*****************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineLibIntersectorJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../core/has */
"./node_modules/arcgis-js-api/core/has.js"), __webpack_require__(
/*! ../../../../core/maybe */
"./node_modules/arcgis-js-api/core/maybe.js"), __webpack_require__(
/*! ../../../../core/now */
"./node_modules/arcgis-js-api/core/now.js"), __webpack_require__(
/*! ../../../../core/libs/gl-matrix-2/mat4f64 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/mat4f64.js"), __webpack_require__(
/*! ../../../../core/libs/gl-matrix-2/vec3 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec3.js"), __webpack_require__(
/*! ../../../../core/libs/gl-matrix-2/vec3f64 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec3f64.js"), __webpack_require__(
/*! ../../support/geometryUtils */
"./node_modules/arcgis-js-api/views/3d/support/geometryUtils.js"), __webpack_require__(
/*! ./intersectorUtils */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/intersectorUtils.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (r, e, t, i, s, n, a, o, d, c) {
var f = t("dojo-debug-messages"),
u = 1e-5;
return function () {
function r(r) {
this.options = new c.IntersectorOptions(), this.results = new c.IntersectorResults(), this.transform = new c.IntersectorTransform(), this.performanceInfo = {
queryDuration: 0,
numObjectsTested: 0
}, this.tolerance = u, this._ray = {
origin: o.vec3f64.create(),
direction: o.vec3f64.create()
}, this._rayEndPoint = o.vec3f64.create(), this._rayStartPointTransformed = o.vec3f64.create(), this._rayEndPointTransformed = o.vec3f64.create(), this.viewingMode = r || "global";
}
return Object.defineProperty(r.prototype, "ray", {
get: function get() {
return this._ray;
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(r.prototype, "rayBeginPoint", {
get: function get() {
return this._ray.origin;
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(r.prototype, "rayEndPoint", {
get: function get() {
return this._rayEndPoint;
},
enumerable: !0,
configurable: !0
}), r.prototype.reset = function (r, e) {
this.resetWithRay(d.ray.fromPoints(r, e, this._ray));
}, r.prototype.resetWithRay = function (r) {
r !== this._ray && d.ray.copy(r, this._ray), a.vec3.add(this._rayEndPoint, this._ray.origin, this._ray.direction), this._numObjectsTested = 0, this.results.init(this._ray);
}, r.prototype.intersect = function (r, e, t, n, a, o) {
var d = this;
this.point = e, this.camera = t, this.filterPredicate = a, this.tolerance = null == n ? u : n;
var c,
l = i.isSome(this.options.verticalOffset) ? this.options.verticalOffset.object3D : null;
f && (c = s());
var y = o ? function (r) {
o(r) && d.intersectObject(r);
} : function (r) {
d.intersectObject(r);
};
if (r && r.length > 0) for (var h = 0, m = r; h < m.length; h++) {
var p = m[h],
v = p.getSpatialQueryAccelerator ? p.getSpatialQueryAccelerator() : void 0;
if (v) l ? v.forEachAlongRayWithVerticalOffset(this._ray.origin, this._ray.direction, y, l) : v.forEachAlongRay(this._ray.origin, this._ray.direction, y), this.options.selectionMode && this.options.hud && v.forEachDegenerateObject(y);else for (var g = p.getObjects(), _ = 0, O = g; _ < O.length; _++) {
var b = O[_];
y(b);
}
}
this.sortResults(), f && (this.performanceInfo.queryDuration = s() - c, this.performanceInfo.numObjectsTested = this._numObjectsTested);
}, r.prototype.intersectObject = function (r) {
var e = this;
this._numObjectsTested++;
var t = r.geometryRecords;
if (t) for (var s, o = r.id, d = r.objectTransformation, f = i.isSome(this.options.verticalOffset) ? this.options.verticalOffset.object3D : null, u = this, l = 0, y = t; l < y.length; l++) {
var h = y[l];
!function (t) {
var l = t.geometry,
y = t.material,
h = t.instanceParameters;
if (h.hidden) return "continue";
s = l.id, u.transform.setAndInvalidateLazyTransforms(d, t.getShaderTransformation()), a.vec3.transformMat4(u._rayStartPointTransformed, u._ray.origin, u.transform.inverse), a.vec3.transformMat4(u._rayEndPointTransformed, u._rayEndPoint, u.transform.inverse);
var m = u.transform.transform;
i.isSome(f) && (f.objectTransform = u.transform), y.intersect(l, h, u.transform.transform, u, u._rayStartPointTransformed, u._rayEndPointTransformed, function (t, i, a, d, f, u) {
if (t >= 0) {
if (null != e.filterPredicate && !e.filterPredicate(e._ray.origin, e._rayEndPoint, t)) return;
if (f) return void ((null == e.results.hud.dist || t < e.results.hud.dist) && e.results.hud.set(r, o, t, i, n.mat4f64.IDENTITY, d, u, s, a));
var l = function l(e) {
return e.set(r, o, t, i, m, d, null, s, a);
};
if ((null == e.results.min.drapedLayerOrder || d >= e.results.min.drapedLayerOrder) && (null == e.results.min.dist || t < e.results.min.dist) && l(e.results.min), 0 !== e.options.store && (null == e.results.max.drapedLayerOrder || d < e.results.max.drapedLayerOrder) && (null == e.results.max.dist || t > e.results.max.dist) && l(e.results.max), 2 === e.options.store) {
var y = new c.IntersectorResult(e._ray);
l(y), e.results.all.push(y);
}
}
}, t.shaderTransformation);
}(h);
}
}, r.prototype.sortResults = function () {
this.results.all.sort(function (r, e) {
return r.dist !== e.dist ? r.dist - e.dist : r.drapedLayerOrder !== e.drapedLayerOrder ? (void 0 !== r.drapedLayerOrder ? r.drapedLayerOrder : Number.MAX_VALUE) - (void 0 !== e.drapedLayerOrder ? e.drapedLayerOrder : Number.MAX_VALUE) : (void 0 !== e.drapedLayerGraphicOrder ? e.drapedLayerGraphicOrder : Number.MIN_VALUE) - (void 0 !== r.drapedLayerGraphicOrder ? r.drapedLayerGraphicOrder : Number.MIN_VALUE);
});
}, r.DEFAULT_TOLERANCE = u, r;
}();
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/IntervalUtilities.js":
/*!***********************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/IntervalUtilities.js ***!
\***********************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineLibIntervalUtilitiesJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports], __WEBPACK_AMD_DEFINE_RESULT__ = function (r, n) {
return function () {
function r() {}
return r.copyIntervals = function (r) {
for (var n = [], t = 0; t < r.length; t++) {
var e = r[t];
n.push([e[0], e[1]]);
}
return n;
}, r.convertFaceToIndexRange = function (r, n) {
for (var t = 0; t < r.length; t++) {
var e = r[t];
e[0] = e[0] * n, e[1] = e[1] * n + (n - 1);
}
}, r.sortIntervals = function (r) {
return r.sort(function (r, n) {
return r[0] === n[0] ? r[1] > n[1] ? 1 : r[1] < n[1] ? -1 : 0 : r[0] > n[0] ? 1 : r[0] < n[0] ? -1 : 0;
});
}, r.intersectIntervals = function (r, n) {
if (r.length <= 0) return [];
for (var t = [], e = 0; e < r.length; e++) {
var u = r[e];
if (!(u[1] < n[0] || u[0] > n[1])) {
var o = [u[0], u[1]];
o[0] < n[0] && (o[0] = n[0]), o[1] > n[1] && (o[1] = n[1]), t.push(o);
}
}
return t;
}, r.mergeIntervals = function (r) {
if (r.length <= 0) return [];
var n = [];
r = this.sortIntervals(r), n.push(r[0]);
for (var t = 1; t < r.length; t++) {
var e = n[n.length - 1];
e[1] + 1 < r[t][0] ? n.push(r[t]) : e[1] < r[t][1] && (e[1] = r[t][1], n.pop(), n.push(e));
}
return n;
}, r.invertIntervals = function (r, n) {
for (var t = [], e = 0, u = 0; u < r.length; u++) {
var o = r[u];
o[0] > e && t.push([e, o[0] - 1]), e = o[1] + 1;
}
return e <= n && t.push([e, n]), t;
}, r.offsetIntervals = function (r, n) {
for (var t = [], e = 0; e < r.length; e++) {
var u = r[e];
t.push([u[0] + n, u[1] + n]);
}
return t;
}, r;
}();
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/Layer.js":
/*!***********************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/Layer.js ***!
\***********************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineLibLayerJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../core/tsSupport/extendsHelper */
"./node_modules/arcgis-js-api/core/tsSupport/extendsHelper.js"), __webpack_require__(
/*! ../../../../core/arrayUtils */
"./node_modules/arcgis-js-api/core/arrayUtils.js"), __webpack_require__(
/*! ../../../../core/Evented */
"./node_modules/arcgis-js-api/core/Evented.js"), __webpack_require__(
/*! ../../../../core/libs/gl-matrix-2/vec3 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec3.js"), __webpack_require__(
/*! ../../../../core/libs/gl-matrix-2/vec3f64 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec3f64.js"), __webpack_require__(
/*! ./IdGen */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/IdGen.js"), __webpack_require__(
/*! ./Octree */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/Octree.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (t, e, i, r, n, o, a, s, c) {
return function (t) {
function e(i, r, n) {
var o = t.call(this) || this;
return o._parentStages = new Map(), o._children = new Set(), o.id = e._idGen.gen(i), o.apiLayerUid = n, o.name = i, r = r || {}, o.group = r.group || "", o.isVisible = null == r.isVisible || r.isVisible, o.isPickable = null == r.isPickable || r.isPickable, o.isSliceable = !1, o.translation = r.translation ? a.vec3f64.clone(r.translation) : a.vec3f64.create(), o._extent = [a.vec3f64.fromValues(0, 0, 0), a.vec3f64.fromValues(1e3, 1e3, 1e3)], o._extentDirty = !0, o;
}
return i(e, t), e.prototype.addParentStage = function (t) {
if (!this._parentStages.has(t)) {
var e = this.on("dirty", function (e) {
t.notifyDirty(e.origin, e.dirtyType, e.subObject);
});
this._parentStages.set(t, e);
}
}, e.prototype.removeParentStage = function (t) {
var e = this._parentStages.get(t);
e && (e.remove(), this._parentStages["delete"](t)), this.invalidateSpatialQueryAccelerator();
}, e.prototype.getName = function () {
return this.name;
}, e.prototype.getGroup = function () {
return this.group;
}, e.prototype.getTranslation = function () {
return this.translation;
}, e.prototype.getObjectIds = function () {
return r.keysOfSet(this._children, function (t) {
return t.id;
});
}, e.prototype.getObjects = function () {
return r.keysOfSet(this._children);
}, e.prototype.getExtent = function () {
return this._updateExtent(), this._extent;
}, e.prototype.addObject = function (t) {
this._children.add(t), t.parentLayer = this, this.notifyDirty("layerObjectAdded", t), this._invalidateExtent(), this._octree && this._octree.add(t);
}, e.prototype.hasObject = function (t) {
return this._children.has(t);
}, e.prototype.removeObject = function (t) {
return !!this._children["delete"](t) && (t.parentLayer = null, this.notifyDirty("layerObjectRemoved", t), this._invalidateExtent(), this._octree && this._octree.remove(t), !0);
}, e.prototype.notifyObjectBBChanged = function (t, e) {
this._octree && this._octree.update(t, e);
}, e.prototype.getCenter = function () {
this._updateExtent();
var t = a.vec3f64.create();
return o.vec3.lerp(t, this._extent[0], this._extent[1], .5);
}, e.prototype.getBSRadius = function () {
return this._updateExtent(), .5 * o.vec3.distance(this._extent[0], this._extent[1]);
}, e.prototype.getSpatialQueryAccelerator = function () {
return !this._octree && this._children.size > 50 && this._createOctree(), this._octree;
}, e.prototype.shaderTransformationChanged = function () {
this.notifyDirty("shaderTransformationChanged", null);
}, e.prototype.invalidateSpatialQueryAccelerator = function () {
this._octree && (this._octree.destroy(), this._octree = null);
}, e.prototype.notifyDirty = function (t, e, i, r) {
i = i || 0;
var n = r || this,
o = {
origin: n,
dirtyType: t,
subObject: e
};
this.emit("dirty", o);
}, e.prototype._createOctree = function () {
for (var t = this.getExtent(), e = 0, i = 0; i < 3; i++) e = Math.max(e, t[1][i] - t[0][i]);
var n = a.vec3f64.create();
o.vec3.lerp(n, t[0], t[1], .5), this._octree = new c(n, 1.2 * e, {
getRadius: function getRadius(t) {
return t.getBSRadius();
},
getCenter: function getCenter(t) {
return t.getCenter();
}
}), this._octree.add(r.keysOfSet(this._children));
}, e.prototype._invalidateExtent = function () {
this._extentDirty = !0;
}, e.prototype._updateExtent = function () {
var t = this;
if (this._extentDirty) {
if (this._extentDirty = !1, 0 === this._children.size) return void (this._extent = [[0, 0, 0], [0, 0, 0]]);
var e = null;
this._children.forEach(function (i) {
var r = i.getBBMin(),
n = i.getBBMax();
if (e) for (var o = 0; o < 3; ++o) t._extent[0][o] = Math.min(t._extent[0][o], r[o]), t._extent[1][o] = Math.max(t._extent[1][o], n[o]);else e = [a.vec3f64.clone(r), a.vec3f64.clone(n)];
}), this._extent = e;
}
}, e._idGen = new s.IdGen(), e;
}(n);
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/Material.js":
/*!**************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/Material.js ***!
\**************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineLibMaterialJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ./IdGen */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/IdGen.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, t, r) {
Object.defineProperty(t, "__esModule", {
value: !0
});
var i = function () {
function e(t) {
this.supportsEdges = !1, this._parentStage = null, this._visible = !0, this._renderOccluded = 1, this._renderPriority = 0, this.id = e._idGen.gen(t);
}
return e.prototype.update = function (e) {
return !1;
}, Object.defineProperty(e.prototype, "parentStage", {
get: function get() {
return this._parentStage;
},
enumerable: !0,
configurable: !0
}), e.prototype.addParentStage = function (e) {
this._parentStage = e;
}, e.prototype.removeParentStage = function () {
this._parentStage = null;
}, Object.defineProperty(e.prototype, "visible", {
get: function get() {
return this._visible;
},
set: function set(e) {
e !== this._visible && (this._visible = e, this.notifyDirty("matChanged"));
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(e.prototype, "renderOccluded", {
get: function get() {
return this._renderOccluded;
},
set: function set(e) {
e !== this._renderOccluded && (this._renderOccluded = e, this.notifyDirty("matChanged"));
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(e.prototype, "renderPriority", {
get: function get() {
return this._renderPriority;
},
set: function set(e) {
e !== this._renderPriority && (this._renderPriority = e, this.notifyDirty("matChanged"));
},
enumerable: !0,
configurable: !0
}), e.prototype.isVisibleInPass = function (e) {
return !0;
}, e.prototype.isVisible = function () {
return this._visible;
}, e.prototype.notifyDirty = function (e) {
this.parentStage && this.parentStage.notifyDirty(this, e);
}, e._idGen = new r.IdGen(), e;
}();
t.Material = i;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/Object3D.js":
/*!**************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/Object3D.js ***!
\**************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineLibObject3DJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../core/tsSupport/extendsHelper */
"./node_modules/arcgis-js-api/core/tsSupport/extendsHelper.js"), __webpack_require__(
/*! ../../../../core/libs/gl-matrix-2/mat4 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/mat4.js"), __webpack_require__(
/*! ../../../../core/libs/gl-matrix-2/mat4f64 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/mat4f64.js"), __webpack_require__(
/*! ../../../../core/libs/gl-matrix-2/vec3 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec3.js"), __webpack_require__(
/*! ../../../../core/libs/gl-matrix-2/vec3f64 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec3f64.js"), __webpack_require__(
/*! ../../support/mathUtils */
"./node_modules/arcgis-js-api/views/3d/support/mathUtils.js"), __webpack_require__(
/*! ./ComponentUtils */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/ComponentUtils.js"), __webpack_require__(
/*! ./GeometryRecord */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/GeometryRecord.js"), __webpack_require__(
/*! ./HighlightUtils */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/HighlightUtils.js"), __webpack_require__(
/*! ./IdGen */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/IdGen.js"), __webpack_require__(
/*! ./Util */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/Util.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (t, e, i, o, n, r, s, a, l, m, h, c, p) {
var d = p.assert,
b = function () {
function t(e) {
void 0 === e && (e = {}), this._objectTransformation = n.mat4f64.create(), this._bvObjectSpace = new g(), this._bvWorldSpace = new g(), this._bvDirty = !0, this._hasVolatileTransformation = !1, this._allComponentsHiddenDirty = !0, this._allComponentsVisibleDirty = !0, this.id = t._idGen.gen(e.idHint), this.castShadow = null == e.castShadow || e.castShadow, this.metadata = e.metadata, this.metadata && this.metadata.isElevationSource && (this.metadata.lastValidElevationBB = new u()), this.objectTransformation = n.mat4f64.create(), this._initializeGeometryRecords(e.geometries, e.materials, e.transformations, e.origins);
}
return Object.defineProperty(t.prototype, "geometryRecords", {
get: function get() {
return this._geometryRecords;
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(t.prototype, "geometries", {
get: function get() {
return this._geometries;
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(t.prototype, "objectTransformation", {
get: function get() {
return this._objectTransformation;
},
set: function set(t) {
o.mat4.copy(this._objectTransformation, t), this._invalidateBoundingVolume(), this._notifyDirty("objTransformation");
},
enumerable: !0,
configurable: !0
}), t.prototype.dispose = function () {
for (var t = 0, e = this._geometryRecords; t < e.length; t++) {
var i = e[t];
m.pool.release(i);
}
this._geometryRecords = null, this._geometries = null;
}, t.prototype._initializeGeometryRecords = function (t, e, i, o) {
if (!Array.isArray(t)) return this._geometryRecords = [], void (this._geometries = []);
d(e.length === t.length, "Object3D: materials don't match geometries"), d(i.length === t.length, "Object3D: transformations don't match geometries"), this._geometryRecords = new Array(t.length), this._geometries = t.slice();
for (var r = 0; r < t.length; r++) {
var s = {};
this._geometryRecords[r] = m.pool.acquire(t[r], e[r], n.mat4f64.clone(i[r]), s, o && o[r]);
}
this._hasVolatileTransformation = !1;
}, Object.defineProperty(t.prototype, "parentLayer", {
get: function get() {
return this._parentLayer;
},
set: function set(t) {
d(null == this._parentLayer || null == t, "Object3D can only be added to a single Layer"), this._parentLayer = t;
},
enumerable: !0,
configurable: !0
}), t.prototype.getNumGeometryRecords = function () {
return this._geometryRecords.length;
}, t.prototype.findGeometryRecords = function (t) {
for (var e = [], i = 0; i < this._geometries.length; i++) this._geometries[i] === t && e.push(this._geometryRecords[i]);
return e;
}, t.prototype.getGeometryRecord = function (t) {
return d(t >= 0 && t < this._geometryRecords.length, "Object3d.getGeometryDataByIndex: index out of range"), this._geometryRecords[t];
}, t.prototype.addGeometry = function (t, e, i, o, r, s) {
i = i ? n.mat4f64.clone(i) : n.mat4f64.IDENTITY, this._geometries.push(t);
var a = m.pool.acquire(t, e, i, o || {}, r, s);
return this._geometryRecords.push(a), this._hasVolatileTransformation = this._geometryRecords.some(function (t) {
return !!t.shaderTransformation;
}), this._notifyDirty("objGeometryAdded", a), this._invalidateBoundingVolume(), this._allComponentsHiddenDirty = !0, this._allComponentsVisibleDirty = !0, a;
}, t.prototype.removeGeometry = function (t) {
var e = this._geometryRecords.splice(t, 1)[0];
return m.pool.release(e), this._hasVolatileTransformation = this._geometryRecords.some(function (t) {
return !!t.shaderTransformation;
}), this._geometries.splice(t, 1), this._notifyDirty("objGeometryRemoved", e), this._invalidateBoundingVolume(), this._allComponentsHiddenDirty = !0, this._allComponentsVisibleDirty = !0, e;
}, t.prototype.removeAllGeometries = function () {
for (; this.getNumGeometryRecords() > 0;) this.removeGeometry(0);
}, t.prototype.geometryVertexAttrsUpdated = function (t) {
this._notifyDirty("vertexAttrsUpdated", this._geometryRecords[t]), this._invalidateBoundingVolume();
}, t.prototype.areAllComponentsHidden = function () {
if (this._allComponentsHiddenDirty) {
this._allComponentsHiddenDirty = !1, this._allComponentsHidden = !0;
for (var t = 0, e = this._geometryRecords; t < e.length; t++) {
var i = e[t],
o = i.instanceParameters.componentVisibilities,
n = i.geometry.data.componentOffsets;
if (!l.isAllHidden(o, n)) {
this._allComponentsHidden = !1;
break;
}
}
}
return this._allComponentsHidden;
}, t.prototype.areAllComponentsVisible = function () {
if (this._allComponentsVisibleDirty) {
this._allComponentsVisibleDirty = !1, this._allComponentsVisible = !0;
for (var t = 0, e = this._geometryRecords; t < e.length; t++) {
var i = e[t],
o = i.instanceParameters.componentVisibilities,
n = i.geometry.data.componentOffsets;
if (!l.isAllVisible(o, n)) {
this._allComponentsVisible = !1;
break;
}
}
}
return this._allComponentsVisible;
}, t.prototype.hasComponents = function () {
for (var t = !1, e = 0; e < this._geometries.length; e++) {
var i = this._geometries[e];
if (t = l.hasComponents(i.data.componentOffsets)) break;
}
return t;
}, t.prototype.setComponentVisibility = function (t, e, i) {
var o = t.geometry,
n = t.instanceParameters.componentVisibilities,
r = o.data.componentOffsets,
s = l.updateVisibility(n, r, e, i);
t.instanceParameters.componentVisibilities = s, this._notifyDirty("visibilityChanged", t), this._allComponentsHiddenDirty = !0, this._allComponentsVisibleDirty = !0;
}, t.prototype.setHidden = function (t, e) {
t.instanceParameters.hidden = !!e, this._notifyDirty("visibilityChanged", t);
}, t.prototype.isHidden = function (t) {
return !!t.instanceParameters.hidden;
}, t.prototype.getComponentVisibility = function (t, e) {
var i = t.instanceParameters.componentVisibilities;
return l.getVisibility(i, e);
}, t.prototype.hideAllComponents = function () {
if (this._allComponentsHiddenDirty || !this._allComponentsHidden) {
for (var t = 0, e = this._geometryRecords; t < e.length; t++) {
var i = e[t],
o = i.instanceParameters.componentVisibilities,
n = l.hideAllComponents(o);
i.instanceParameters.componentVisibilities = n;
}
this._notifyDirty("visibilityChanged"), this._allComponentsHiddenDirty = !1, this._allComponentsVisibleDirty = !1, this._allComponentsHidden = !0, this._allComponentsVisible = !1;
}
}, t.prototype.unhideAllComponents = function () {
if (this._allComponentsVisibleDirty || !this._allComponentsVisible) {
for (var t = 0, e = this._geometryRecords; t < e.length; t++) {
var i = e[t],
o = i.instanceParameters.componentVisibilities,
n = l.unhideAllComponents(o);
i.instanceParameters.componentVisibilities = n;
}
this._notifyDirty("visibilityChanged"), this._allComponentsHiddenDirty = !1, this._allComponentsVisibleDirty = !1, this._allComponentsHidden = !1, this._allComponentsVisible = !0;
}
}, t.prototype._setComponentHighlight = function (t, e, i, o) {
var n = t.instanceParameters.componentHighlights,
r = l.addHighlight(n, e, i, o);
t.instanceParameters.componentHighlights = r;
}, t.prototype.setComponentHighlight = function (t, e, i) {
var o = h.generateHighlightId();
return this._setComponentHighlight(t, e, i, o), this._notifyDirty("componentHighlightChanged"), o;
}, t.prototype.highlightAllComponents = function (t) {
for (var e = h.generateHighlightId(), i = 0, o = this._geometryRecords; i < o.length; i++) {
var n = o[i];
this._setComponentHighlight(n, null, t, e);
}
return this._notifyDirty("componentHighlightChanged"), e;
}, t.prototype.removeHighlights = function (t) {
for (var e = 0, i = this._geometryRecords; e < i.length; e++) {
var o = i[e],
n = o.instanceParameters,
r = n.componentHighlights,
s = l.removeHighlight(r, t);
n.componentHighlights = s;
}
this._notifyDirty("componentHighlightChanged");
}, t.prototype.getComponentFromTriangleNr = function (t, e) {
d(t >= 0 && t < this._geometryRecords.length, "Object3d.getComponentFromTriangleNr: index out of range");
var i = this._geometryRecords[t],
o = i.geometry.data.componentOffsets;
return l.componentFind(o, 3 * e);
}, t.prototype.setGeometryTransformation = function (t, e) {
d(t >= 0 && t < this._geometryRecords.length, "Object3d.setGeometryTransformation: index out of range");
var i = this._geometryRecords[t];
m.pool.release(i);
var o = m.pool.acquire(i.geometry, i.material, n.mat4f64.clone(e), i.instanceParameters);
this._geometryRecords[t] = o, this._notifyDirty("objGeometryReplaced", [i, o]), this._invalidateBoundingVolume();
}, t.prototype.getCombinedStaticTransformation = function (t, e) {
return e = e || n.mat4f64.create(), o.mat4.multiply(e, this.objectTransformation, t.getStaticTransformation()), e;
}, t.prototype.getCombinedShaderTransformation = function (t, e) {
return e = e || n.mat4f64.create(), o.mat4.multiply(e, this.objectTransformation, t.getShaderTransformation()), e;
}, t.prototype.hasVolativeTransformation = function () {
return this._hasVolatileTransformation;
}, t.prototype.getMetadata = function () {
return this.metadata;
}, t.prototype.getBBMin = function (t) {
return this._validateBoundingVolume(), t ? this._bvObjectSpace.bbMin : this._bvWorldSpace.bbMin;
}, t.prototype.getBBMax = function (t) {
return this._validateBoundingVolume(), t ? this._bvObjectSpace.bbMax : this._bvWorldSpace.bbMax;
}, t.prototype.getCenter = function (t) {
return this._validateBoundingVolume(), t ? this._bvObjectSpace.center : this._bvWorldSpace.center;
}, t.prototype.getBSRadius = function (t) {
return this._validateBoundingVolume(), t ? this._bvObjectSpace.bsRadius : this._bvWorldSpace.bsRadius;
}, t.prototype._validateBoundingVolume = function () {
if (this._bvDirty || this._hasVolatileTransformation) {
this._bvObjectSpace.init(), this._bvWorldSpace.init();
for (var t = 0; t < this._geometryRecords.length; ++t) {
var e = this._geometries[t],
i = this._geometryRecords[t],
o = e.boundingInfo;
this._calculateTransformedBoundingVolume(o, this._bvObjectSpace, i.getShaderTransformation()), this._calculateTransformedBoundingVolume(o, this._bvWorldSpace, this.getCombinedShaderTransformation(i));
}
r.vec3.lerp(this._bvObjectSpace.center, this._bvObjectSpace.bbMin, this._bvObjectSpace.bbMax, .5), r.vec3.lerp(this._bvWorldSpace.center, this._bvWorldSpace.bbMin, this._bvWorldSpace.bbMax, .5);
for (var n = s.vec3f64.create(), l = s.vec3f64.create(), m = a.maxScale(this.objectTransformation), t = 0; t < this._geometryRecords.length; ++t) {
var e = this._geometries[t],
h = this._geometryRecords[t].getShaderTransformation(),
c = a.maxScale(h),
o = e.boundingInfo;
r.vec3.transformMat4(n, o.getCenter(), h);
var p = r.vec3.distance(n, this._bvObjectSpace.center),
d = o.getBSRadius() * c;
this._bvObjectSpace.bsRadius = Math.max(this._bvObjectSpace.bsRadius, p + d), r.vec3.transformMat4(l, n, this.objectTransformation);
var b = r.vec3.distance(l, this._bvWorldSpace.center),
u = d * m;
this._bvWorldSpace.bsRadius = Math.max(this._bvWorldSpace.bsRadius, b + u);
}
this._bvDirty = !1;
}
}, t.prototype._calculateTransformedBoundingVolume = function (t, e, i) {
var o = t.getBBMin(),
n = t.getBBMax(),
a = s.vec3f64.clone(o),
l = s.vec3f64.clone(n);
r.vec3.transformMat4(a, a, i), r.vec3.transformMat4(l, l, i);
for (var m = 0; m < 3; ++m) e.bbMin[m] = Math.min(e.bbMin[m], a[m], l[m]), e.bbMax[m] = Math.max(e.bbMax[m], a[m], l[m]);
for (var m = 0; m < 3; ++m) {
r.vec3.copy(a, o), r.vec3.copy(l, n), a[m] = n[m], l[m] = o[m], r.vec3.transformMat4(a, a, i), r.vec3.transformMat4(l, l, i);
for (var h = 0; h < 3; ++h) e.bbMin[h] = Math.min(e.bbMin[h], a[h], l[h]), e.bbMax[h] = Math.max(e.bbMax[h], a[h], l[h]);
}
}, t.prototype._invalidateBoundingVolume = function () {
this._bvDirty = !0, this._parentLayer && this._parentLayer.notifyObjectBBChanged(this, {
center: this._bvWorldSpace.center,
radius: this._bvWorldSpace.bsRadius
});
}, t.prototype._notifyDirty = function (t, e, i, o) {
if (this._parentLayer) {
i = i || 1;
var n = o || this;
this._parentLayer.notifyDirty(t, e, i, n);
}
}, Object.defineProperty(t.prototype, "test", {
get: function get() {
var t = this;
return {
hasGeometry: function hasGeometry(e) {
return t._geometries.indexOf(e) > -1;
},
getGeometryIndex: function getGeometryIndex(e) {
return t._geometries.indexOf(e);
}
};
},
enumerable: !0,
configurable: !0
}), t._idGen = new c.IdGen(), t;
}(),
u = function () {
function t() {
this.bbMin = s.vec3f64.fromValues(Number.MAX_VALUE, Number.MAX_VALUE, Number.MAX_VALUE), this.bbMax = s.vec3f64.fromValues(-Number.MAX_VALUE, -Number.MAX_VALUE, -Number.MAX_VALUE);
}
return t.prototype.isEmpty = function () {
return this.bbMax[0] < this.bbMin[0] && this.bbMax[1] < this.bbMin[1] && this.bbMax[2] < this.bbMin[2];
}, t;
}(),
g = function (t) {
function e() {
var e = t.call(this) || this;
return e.center = s.vec3f64.create(), e.bsRadius = 0, e;
}
return i(e, t), e.prototype.init = function () {
r.vec3.set(this.bbMin, Number.MAX_VALUE, Number.MAX_VALUE, Number.MAX_VALUE), r.vec3.set(this.bbMax, -Number.MAX_VALUE, -Number.MAX_VALUE, -Number.MAX_VALUE), r.vec3.set(this.center, 0, 0, 0), this.bsRadius = 0;
}, e.prototype.getCenter = function () {
return this.center;
}, e.prototype.getBSRadius = function () {
return this.bsRadius;
}, e;
}(u);
return b;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/Octree.js":
/*!************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/Octree.js ***!
\************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineLibOctreeJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../core/ObjectPool */
"./node_modules/arcgis-js-api/core/ObjectPool.js"), __webpack_require__(
/*! ../../../../core/PooledArray */
"./node_modules/arcgis-js-api/core/PooledArray.js"), __webpack_require__(
/*! ../../../../core/libs/gl-matrix-2/vec3 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec3.js"), __webpack_require__(
/*! ../../../../core/libs/gl-matrix-2/vec3f64 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec3f64.js"), __webpack_require__(
/*! ../../support/geometryUtils */
"./node_modules/arcgis-js-api/views/3d/support/geometryUtils.js"), __webpack_require__(
/*! ./Util */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/Util.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, t, r, n, i, o, a, s) {
function c(e, t, r) {
e[0] = Math.min(e[0], t[0] - r), e[1] = Math.min(e[1], t[1] - r), e[2] = Math.min(e[2], t[2] - r);
}
function u(e, t, r) {
e[0] = Math.max(e[0], t[0] + r), e[1] = Math.max(e[1], t[1] + r), e[2] = Math.max(e[2], t[2] + r);
}
function h(e, t, r) {
return r = r || e, r[0] = e[0] + t, r[1] = e[1] + t, r[2] = e[2] + t, r;
}
function f(e, t, r) {
return !a.frustum.intersectsSphere(r.planes, a.sphere.wrap(t, e));
}
function d(e, t, r) {
if (!V.length) for (var n = 0; n < 8; ++n) V.push({
index: 0,
distance: 0
});
for (var n = 0; n < 8; ++n) {
var i = v[n];
V.data[n].index = n, V.data[n].distance = p(e, t, i);
}
V.sort(function (e, t) {
return e.distance - t.distance;
}), r.clear();
for (var n = 0; n < 8; ++n) r.push(V.data[n].index);
}
function l(e, t) {
for (var r = 1 / 0, n = null, i = 0; i < 8; ++i) {
var o = p(e, t, g[i]);
o < r && (r = o, n = g[i]);
}
return n;
}
function p(e, t, r) {
return t * (e[0] * r[0] + e[1] * r[1] + e[2] * r[2]);
}
var _ = function () {
function e(e, t, r, n) {
this._maximumObjectsPerNode = 10, this._maximumDepth = 20, this._degenerateObjects = new Set(), this._objectCount = 0, this._objectToBoundingSphere = r, n && (void 0 !== n.maximumObjectsPerNode && (this._maximumObjectsPerNode = n.maximumObjectsPerNode), void 0 !== n.maximumDepth && (this._maximumDepth = n.maximumDepth)), isNaN(e[0]) || isNaN(e[1]) || isNaN(e[2]) || isNaN(t) ? this._root = new m(null, o.vec3f64.fromValues(0, 0, 0), .5) : this._root = new m(null, e, t / 2);
}
return Object.defineProperty(e.prototype, "center", {
get: function get() {
return this._root.center;
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(e.prototype, "size", {
get: function get() {
return 2 * this._root.halfSize;
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(e.prototype, "root", {
get: function get() {
return this._root.node;
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(e.prototype, "maximumObjectsPerNode", {
get: function get() {
return this._maximumObjectsPerNode;
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(e.prototype, "maximumDepth", {
get: function get() {
return this._maximumDepth;
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(e.prototype, "objectCount", {
get: function get() {
return this._objectCount;
},
enumerable: !0,
configurable: !0
}), e.prototype.destroy = function () {
this._degenerateObjects.clear(), this._root = null, m.clearPool(), y = [null], N.prune(), V.prune(), D.prune();
}, e.prototype.add = function (e, t) {
var r = this._objectOrObjectsArray(e);
t = null == t ? r.length : t, this._objectCount += t, this._grow(r, t);
for (var n = m.acquire(), i = 0; i < t; i++) {
var o = r[i];
n.init(this._root), this._isDegenerate(o) ? this._degenerateObjects.add(o) : this._add(o, n);
}
m.release(n);
}, e.prototype.remove = function (e, t) {
var r = this._objectOrObjectsArray(e);
this._objectCount -= r.length;
for (var n = m.acquire(), i = 0; i < r.length; i++) {
var o = r[i],
a = t || this._boundingSphereFromObject(o, E);
this._isValidRadius(a.radius) ? (n.init(this._root), this._remove(o, a, n)) : this._degenerateObjects["delete"](o);
}
m.release(n), this._shrink();
}, e.prototype.update = function (e, t) {
!this._isValidRadius(t.radius) && this._isDegenerate(e) || (this.remove(e, t), this.add(e));
}, e.prototype.forEachAlongRay = function (e, t, r) {
var n = this,
i = a.ray.wrap(e, t);
this._forEachNode(this._root, function (e) {
if (!n._intersectsNode(i, e)) return !1;
var t = e.node;
return t.terminals.forEach(function (e) {
n._intersectsObject(i, e) && r(e);
}), null !== t.residents && t.residents.forEach(function (e) {
n._intersectsObject(i, e) && r(e);
}), !0;
});
}, e.prototype.forEachAlongRayWithVerticalOffset = function (e, t, r, n) {
var i = this,
o = a.ray.wrap(e, t);
this._forEachNode(this._root, function (e) {
if (!i._intersectsNodeWithOffset(o, e, n)) return !1;
var t = e.node;
return t.terminals.forEach(function (e) {
i._intersectsObjectWithOffset(o, e, n) && r(e);
}), null !== t.residents && t.residents.forEach(function (e) {
i._intersectsObjectWithOffset(o, e, n) && r(e);
}), !0;
});
}, e.prototype.forEach = function (e) {
this._forEachNode(this._root, function (t) {
var r = t.node;
return r.terminals.forEach(e), null !== r.residents && r.residents.forEach(e), !0;
}), this._degenerateObjects.forEach(e);
}, e.prototype.forEachDegenerateObject = function (e) {
this._degenerateObjects.forEach(e);
}, e.prototype.findClosest = function (e, t, r, n, i) {
return this._findClosest(e, "front-to-back" === t ? 1 : -1, r, n, i);
}, e.prototype.forEachInDepthRange = function (e, t, r, n, i, o, a, s) {
this._forEachInDepthRange(e, t, "front-to-back" === r ? 1 : -1, n, i, o, a, s);
}, e.prototype.forEachNode = function (e) {
this._forEachNode(this._root, function (t) {
return e(t.node, t.center, 2 * t.halfSize);
});
}, e.prototype._intersectsNode = function (e, t) {
return h(t.center, 2 * -t.halfSize, O), h(t.center, 2 * t.halfSize, x), s.rayBoxTest(e.origin, e.direction, O, x);
}, e.prototype._intersectsNodeWithOffset = function (e, t, r) {
return h(t.center, 2 * -t.halfSize, O), h(t.center, 2 * t.halfSize, x), r.applyToMinMax(O, x), s.rayBoxTest(e.origin, e.direction, O, x);
}, e.prototype._intersectsObject = function (e, t) {
var r = this._objectToBoundingSphere.getRadius(t);
return !(r > 0) || a.sphere.intersectsRay(a.sphere.wrap(r, this._objectToBoundingSphere.getCenter(t)), e);
}, e.prototype._intersectsObjectWithOffset = function (e, t, r) {
var n = this._objectToBoundingSphere.getRadius(t);
return !(n > 0) || a.sphere.intersectsRay(r.applyToBoundingSphere(n, this._objectToBoundingSphere.getCenter(t)), e);
}, e.prototype._forEachNode = function (e, t) {
for (var r = m.acquire().init(e), n = [r]; 0 !== n.length;) {
if (r = n.pop(), t(r) && !r.isLeaf()) for (var i = 0; i < r.node.children.length; i++) {
var o = r.node.children[i];
o && n.push(m.acquire().init(r).advance(i));
}
m.release(r);
}
}, e.prototype._forEachNodeDepthOrdered = function (e, t, r, n) {
void 0 === n && (n = 1);
var i = m.acquire().init(e),
o = [i];
for (d(r, n, D); 0 !== o.length;) {
if (i = o.pop(), t(i) && !i.isLeaf()) for (var a = 7; a >= 0; --a) {
var s = D.data[a];
if (!(s >= i.node.children.length)) {
var c = i.node.children[s];
c && o.push(m.acquire().init(i).advance(s));
}
}
m.release(i);
}
}, e.prototype._findClosest = function (e, t, r, n, o) {
var a = this,
s = 1 / 0,
c = 1 / 0,
u = null,
h = l(e, t),
d = 0,
_ = function _(i) {
if (++d, !n || n(i)) {
var o = a._objectToBoundingSphere.getCenter(i),
h = a._objectToBoundingSphere.getRadius(i);
if (!r || !f(o, h, r)) {
var l = p(e, t, o),
_ = l - h,
m = l + h;
_ < s && (s = _, c = m, u = i);
}
}
};
return this._forEachNodeDepthOrdered(this._root, function (n) {
if (null != o && d >= o) return !1;
if (r && f(n.center, n.halfSize * b, r)) return !1;
if (i.vec3.scale(S, h, n.halfSize), i.vec3.add(S, S, n.center), p(e, t, S) > c) return !1;
var a = n.node;
return a.terminals.forEach(function (e) {
_(e);
}), null !== a.residents && a.residents.forEach(function (e) {
_(e);
}), !0;
}, e, t), u;
}, e.prototype._forEachInDepthRange = function (e, t, r, n, o, a, s, c) {
var u = this,
h = -1 / 0,
d = 1 / 0,
_ = {
setRange: function setRange(e) {
1 === r ? (h = Math.max(h, e.near), d = Math.min(d, e.far)) : (h = Math.max(h, -e.far), d = Math.min(d, -e.near));
}
};
_.setRange(n);
var m = p(t, r, e),
v = l(t, r),
g = l(t, -1 * r),
y = 0,
j = function j(e) {
if (++y, !s || s(e)) {
var n = u._objectToBoundingSphere.getCenter(e),
i = u._objectToBoundingSphere.getRadius(e),
c = p(t, r, n) - m,
l = c - i,
v = c + i;
l > d || v < h || a && f(n, i, a) || o(e, _);
}
};
this._forEachNodeDepthOrdered(this._root, function (e) {
if (null != c && y >= c) return !1;
if (a && f(e.center, e.halfSize * b, a)) return !1;
if (i.vec3.scale(S, v, e.halfSize), i.vec3.add(S, S, e.center), p(t, r, S) - m > d) return !1;
if (i.vec3.scale(S, g, e.halfSize), i.vec3.add(S, S, e.center), p(t, r, S) - m < h) return !1;
var n = e.node;
return n.terminals.forEach(function (e) {
j(e);
}), null !== n.residents && n.residents.forEach(function (e) {
j(e);
}), !0;
}, t, r);
}, e.prototype._objectOrObjectsArray = function (e) {
return Array.isArray(e) ? e : (y[0] = e, y);
}, e.prototype._remove = function (e, t, r) {
N.clear();
var n = r.advanceTo(t, function (e, t) {
N.push(e.node), N.push(t);
}),
i = n ? r.node.terminals : r.node.residents;
if (i.removeUnordered(e), 0 === i.length) for (var o = N.length - 2; o >= 0; o -= 2) {
var a = N.data[o],
s = N.data[o + 1];
if (!this._purge(a, s)) break;
}
}, e.prototype._nodeIsEmpty = function (e) {
if (0 !== e.terminals.length) return !1;
if (null !== e.residents) return 0 === e.residents.length;
for (var t = 0; t < e.children.length; t++) if (e.children[t]) return !1;
return !0;
}, e.prototype._purge = function (e, t) {
return t >= 0 && (e.children[t] = null), !!this._nodeIsEmpty(e) && (null === e.residents && (e.residents = new n({
shrink: !0
})), !0);
}, e.prototype._add = function (e, t) {
t.advanceTo(this._boundingSphereFromObject(e, E)) ? t.node.terminals.push(e) : (t.node.residents.push(e), t.node.residents.length > this._maximumObjectsPerNode && t.depth < this._maximumDepth && this._split(t));
}, e.prototype._split = function (e) {
var t = e.node.residents;
e.node.residents = null;
for (var r = 0; r < t.length; r++) {
var n = m.acquire().init(e);
this._add(t.data[r], n), m.release(n);
}
}, e.prototype._grow = function (e, t) {
var r = this;
if (0 !== t) {
var n = this._boundingSphereFromObjects(e, t, function (e, t) {
return r._boundingSphereFromObject(e, t);
}, M);
if (this._isValidRadius(n.radius) && !this._fitsInsideTree(n)) if (this._nodeIsEmpty(this._root.node)) i.vec3.copy(this._root.center, n.center), this._root.halfSize = 1.25 * n.radius;else {
var o = m.acquire();
this._rootBoundsForRootAsSubNode(n, o), this._placingRootViolatesMaxDepth(o) ? this._rebuildTree(n, o) : this._growRootAsSubNode(o), m.release(o);
}
}
}, e.prototype._rebuildTree = function (e, t) {
var r = this;
i.vec3.copy(z.center, t.center), z.radius = t.halfSize;
var n = this._boundingSphereFromObjects([e, z], 2, function (e) {
return e;
}, R),
o = m.acquire().init(this._root);
this._root.initFrom(null, n.center, 1.25 * n.radius), this._forEachNode(o, function (e) {
return r.add(e.node.terminals.data, e.node.terminals.length), null !== e.node.residents && r.add(e.node.residents.data, e.node.residents.length), !0;
}), m.release(o);
}, e.prototype._placingRootViolatesMaxDepth = function (e) {
var t = 0;
return this._forEachNode(this._root, function (e) {
return t = Math.max(t, e.depth), !0;
}), t + Math.log(e.halfSize / this._root.halfSize) * Math.LOG2E > this._maximumDepth;
}, e.prototype._rootBoundsForRootAsSubNode = function (e, t) {
for (var r = e.radius, n = e.center, i = -1 / 0, o = this._root.center, a = this._root.halfSize, s = 0; s < 3; s++) {
var c = o[s] - a - (n[s] - r),
u = n[s] + r - (o[s] + a),
h = Math.max(0, Math.ceil(c / (2 * a))),
f = Math.max(0, Math.ceil(u / (2 * a))) + 1,
d = Math.pow(2, Math.ceil(Math.log(h + f) * Math.LOG2E));
i = Math.max(i, d), T[s].min = h, T[s].max = f;
}
for (var s = 0; s < 3; s++) {
var h = T[s].min,
f = T[s].max,
l = (i - (h + f)) / 2;
h += Math.ceil(l), f += Math.floor(l);
var p = o[s] - a - h * a * 2;
j[s] = p + (f + h) * a;
}
return t.initFrom(null, j, i * a, 0);
}, e.prototype._growRootAsSubNode = function (e) {
var t = this._root.node;
i.vec3.copy(M.center, this._root.center), M.radius = this._root.halfSize, this._root.init(e), e.advanceTo(M, null, !0), e.node.children = t.children, e.node.residents = t.residents, e.node.terminals = t.terminals;
}, e.prototype._shrink = function () {
for (;;) {
var e = this._findShrinkIndex();
if (-1 === e) break;
this._root.advance(e), this._root.depth = 0;
}
}, e.prototype._findShrinkIndex = function () {
if (0 !== this._root.node.terminals.length || this._root.isLeaf()) return -1;
for (var e = null, t = this._root.node.children, r = 0, n = 0; n < t.length && null == e;) r = n++, e = t[r];
for (; n < t.length;) if (t[n++]) return -1;
return r;
}, e.prototype._isDegenerate = function (e) {
var t = this._objectToBoundingSphere.getRadius(e);
return !this._isValidRadius(t);
}, e.prototype._isValidRadius = function (e) {
return !isNaN(e) && e !== -1 / 0 && e !== 1 / 0 && e > 0;
}, e.prototype._fitsInsideTree = function (e) {
var t = this._root.center,
r = this._root.halfSize,
n = e.center;
return e.radius <= r && n[0] >= t[0] - r && n[0] <= t[0] + r && n[1] >= t[1] - r && n[1] <= t[1] + r && n[2] >= t[2] - r && n[2] <= t[2] + r;
}, e.prototype._boundingSphereFromObject = function (e, t) {
return i.vec3.copy(t.center, this._objectToBoundingSphere.getCenter(e)), t.radius = this._objectToBoundingSphere.getRadius(e), t;
}, e.prototype._boundingSphereFromObjects = function (e, t, r, n) {
if (1 === t) {
var o = r(e[0], M);
i.vec3.copy(n.center, o.center), n.radius = o.radius;
} else {
O[0] = 1 / 0, O[1] = 1 / 0, O[2] = 1 / 0, x[0] = -1 / 0, x[1] = -1 / 0, x[2] = -1 / 0;
for (var a = 0; a < t; a++) {
var o = r(e[a], M);
this._isValidRadius(o.radius) && (c(O, o.center, o.radius), u(x, o.center, o.radius));
}
i.vec3.lerp(n.center, O, x, .5), n.radius = Math.max(x[0] - O[0], x[1] - O[1], x[2] - O[2]) / 2;
}
return n;
}, e;
}(),
m = function () {
function e(e, t, r) {
void 0 === r && (r = 0), this.center = o.vec3f64.create(), this.initFrom(e, t, r, 0);
}
return e.prototype.init = function (e) {
return this.initFrom(e.node, e.center, e.halfSize, e.depth);
}, e.prototype.initFrom = function (t, r, n, o) {
return void 0 === t && (t = null), void 0 === n && (n = this.halfSize), void 0 === o && (o = this.depth), this.node = t || e.createEmptyNode(), r && i.vec3.copy(this.center, r), this.halfSize = n, this.depth = o, this;
}, e.prototype.advance = function (t) {
var r = this.node.children[t];
r || (r = e.createEmptyNode(), this.node.children[t] = r), this.node = r, this.halfSize /= 2, this.depth++;
var n = v[t];
return this.center[0] += n[0] * this.halfSize, this.center[1] += n[1] * this.halfSize, this.center[2] += n[2] * this.halfSize, this;
}, e.prototype.advanceTo = function (e, t, r) {
for (void 0 === r && (r = !1);;) {
if (this.isTerminalFor(e)) return t && t(this, -1), !0;
if (this.isLeaf() && !r) return t && t(this, -1), !1;
this.isLeaf() && (this.node.residents = null);
var n = this._childIndex(e);
t && t(this, n), this.advance(n);
}
}, e.prototype.isLeaf = function () {
return null != this.node.residents;
}, e.prototype.isTerminalFor = function (e) {
return e.radius > this.halfSize / 2;
}, e.prototype._childIndex = function (e) {
for (var t = e.center, r = this.center, n = 0, i = 0; i < 3; i++) r[i] < t[i] && (n |= 1 << i);
return n;
}, e.createEmptyNode = function () {
return {
children: [null, null, null, null, null, null, null, null],
terminals: new n({
shrink: !0
}),
residents: new n({
shrink: !0
})
};
}, e.acquire = function () {
return e._pool.acquire();
}, e.release = function (t) {
e._pool.release(t);
}, e.clearPool = function () {
e._pool.prune();
}, e._pool = new r(e), e;
}(),
v = [o.vec3f64.fromValues(-1, -1, -1), o.vec3f64.fromValues(1, -1, -1), o.vec3f64.fromValues(-1, 1, -1), o.vec3f64.fromValues(1, 1, -1), o.vec3f64.fromValues(-1, -1, 1), o.vec3f64.fromValues(1, -1, 1), o.vec3f64.fromValues(-1, 1, 1), o.vec3f64.fromValues(1, 1, 1)],
g = [o.vec3f64.fromValues(-1, -1, -1), o.vec3f64.fromValues(-1, -1, 1), o.vec3f64.fromValues(-1, 1, -1), o.vec3f64.fromValues(-1, 1, 1), o.vec3f64.fromValues(1, -1, -1), o.vec3f64.fromValues(1, -1, 1), o.vec3f64.fromValues(1, 1, -1), o.vec3f64.fromValues(1, 1, 1)],
b = Math.sqrt(3),
y = [null],
j = o.vec3f64.create(),
S = o.vec3f64.create(),
O = o.vec3f64.create(),
x = o.vec3f64.create(),
N = new n(),
E = {
center: o.vec3f64.create(),
radius: 0
},
M = {
center: o.vec3f64.create(),
radius: 0
},
z = {
center: o.vec3f64.create(),
radius: 0
},
R = {
center: o.vec3f64.create(),
radius: 0
},
T = [{
min: 0,
max: 0
}, {
min: 0,
max: 0
}, {
min: 0,
max: 0
}],
V = new n(),
D = new n();
return _;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/ResizableFloat32Array.js":
/*!***************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/ResizableFloat32Array.js ***!
\***************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineLibResizableFloat32ArrayJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../core/mathUtils */
"./node_modules/arcgis-js-api/core/mathUtils.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (r, e, t) {
Object.defineProperty(e, "__esModule", {
value: !0
});
var a = function () {
function r(r) {
null == r ? r = 16 : r < 65536 && (r = t.nextHighestPowerOfTwo(r)), this._array = new Float32Array(r), this._size = 0;
}
return r.prototype.resize = function (r, e) {
if (this._size = r, this._size > this._array.length) {
for (var t = this._array.length || 1; t < this._size;) t *= 2;
var a = new Float32Array(t);
return e && a.set(this._array), this._array = a, !0;
}
var i = 2 * this._size;
if (i <= this._array.length) {
for (var t = this._array.length; t >= i;) t = Math.floor(t / 2);
var a = new Float32Array(t);
return e && a.set(this._array.subarray(0, t)), this._array = a, !0;
}
return !1;
}, r.prototype.append = function (r) {
var e = this._size;
this.resize(this._size + r.length, !0), this._array.set(r, e);
}, r.prototype.erase = function (r, e) {
for (var t = r; t < e; ++t) this._array[t] = 0;
}, Object.defineProperty(r.prototype, "array", {
get: function get() {
return this._array;
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(r.prototype, "size", {
get: function get() {
return this._size;
},
enumerable: !0,
configurable: !0
}), r;
}();
e.ResizableFloat32Array = a;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
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},
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"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/WebGLDriverTest.js":
/*!*********************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/WebGLDriverTest.js ***!
\*********************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineLibWebGLDriverTestJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../core/maybe */
"./node_modules/arcgis-js-api/core/maybe.js"), __webpack_require__(
/*! ../../../../core/libs/gl-matrix-2/vec3f64 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec3f64.js"), __webpack_require__(
/*! ../../../webgl */
"./node_modules/arcgis-js-api/views/webgl.js"), __webpack_require__(
/*! ./doublePrecisionUtils */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/doublePrecisionUtils.js"), __webpack_require__(
/*! ./Util */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/Util.js"), __webpack_require__(
/*! ../shaders/sources/shaderRepository */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/shaders/sources/shaderRepository.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, n, o, t, r, i, a, s) {
function u(e) {
return (o.isNone(f) || f.context !== e) && (f = new c(e)), f;
}
function l(e, n) {
var o = new r.FramebufferObject(e, {
colorTarget: 0,
depthStencilTarget: 0
}, {
target: 3553,
wrapMode: 33071,
pixelFormat: 6408,
dataType: 5121,
samplingMode: 9728,
width: 1,
height: 1
}),
u = r.BufferObject.createVertex(e, 35044, new Uint16Array([0, 0, 1, 0, 0, 1, 1, 1])),
l = new r.VertexArrayObject(e, {
a_pos: 0
}, {
geometry: [{
name: "a_pos",
count: 2,
type: 5123,
offset: 0,
stride: 4,
normalized: !1
}]
}, {
geometry: u
}),
c = t.vec3f64.fromValues(5633261.287538229, 2626832.878767164, 1434988.0495278358),
f = t.vec3f64.fromValues(5633271.46742708, 2626873.6381334523, 1434963.231608387);
e.bindFramebuffer(o);
var d = function (o, t) {
var a = s.util["doublePrecision.glsl"],
u = n ? "#define DOUBLE_PRECISION_REQUIRES_OBFUSCATION" : "",
l = "\n\n precision highp float;\n\n attribute vec2 a_pos;\n\n uniform vec3 u_highA;\n uniform vec3 u_lowA;\n uniform vec3 u_highB;\n uniform vec3 u_lowB;\n\n varying vec4 v_color;\n\n " + u + "\n\n " + a + "\n\n const float MAX_RGBA_FLOAT =\n 255.0 / 256.0 +\n 255.0 / 256.0 / 256.0 +\n 255.0 / 256.0 / 256.0 / 256.0 +\n 255.0 / 256.0 / 256.0 / 256.0 / 256.0;\n\n const vec4 FIXED_POINT_FACTORS = vec4(1.0, 256.0, 256.0 * 256.0, 256.0 * 256.0 * 256.0);\n\n vec4 float2rgba(const float value) {\n // Make sure value is in the domain we can represent\n float valueInValidDomain = clamp(value, 0.0, MAX_RGBA_FLOAT);\n\n // Decompose value in 32bit fixed point parts represented as\n // uint8 rgba components. Decomposition uses the fractional part after multiplying\n // by a power of 256 (this removes the bits that are represented in the previous\n // component) and then converts the fractional part to 8bits.\n vec4 fixedPointU8 = floor(fract(valueInValidDomain * FIXED_POINT_FACTORS) * 256.0);\n\n // Convert uint8 values (from 0 to 255) to floating point representation for\n // the shader\n const float toU8AsFloat = 1.0 / 255.0;\n\n return fixedPointU8 * toU8AsFloat;\n }\n\n void main() {\n vec3 val = dpAdd(u_highA, u_lowA, -u_highB, -u_lowB);\n\n v_color = float2rgba(val.z / 25.0);\n\n gl_Position = vec4(a_pos * 2.0 - 1.0, 0.0, 1.0);\n }\n ",
c = new r.Program(e, l, "\n precision highp float;\n\n varying vec4 v_color;\n\n void main() {\n gl_FragColor = v_color;\n }\n ", {
a_pos: 0
}),
f = new Float32Array(6);
i.encodeDoubleArray(o, f, 3);
var d = new Float32Array(6);
return i.encodeDoubleArray(t, d, 3), e.bindProgram(c), c.setUniform3f("u_highA", f[0], f[2], f[4]), c.setUniform3f("u_lowA", f[1], f[3], f[5]), c.setUniform3f("u_highB", d[0], d[2], d[4]), c.setUniform3f("u_lowB", d[1], d[3], d[5]), c;
}(c, f),
p = e.getViewport(),
v = p.x,
h = p.y,
_ = p.width,
b = p.height;
e.setViewport(0, 0, 1, 1), e.bindVAO(l), e.drawArrays(5, 0, 4), e.setViewport(v, h, _, b);
var m = new Uint8Array(4);
o.readPixels(0, 0, 1, 1, 6408, 5121, m), d.dispose(), l.dispose(!1), u.dispose(), o.dispose();
var g = (c[2] - f[2]) / 25,
A = a.unpackFloatRGBA(m);
return Math.abs(g - A);
}
Object.defineProperty(n, "__esModule", {
value: !0
});
var c = function () {
function e(e) {
this.context = e, this._doublePrecisionRequiresObfuscation = null;
}
return Object.defineProperty(e.prototype, "doublePrecisionRequiresObfuscation", {
get: function get() {
if (o.isNone(this._doublePrecisionRequiresObfuscation)) {
var e = l(this.context, !1),
n = l(this.context, !0);
this._doublePrecisionRequiresObfuscation = 0 !== e && (0 === n || e / n > 5);
}
return this._doublePrecisionRequiresObfuscation;
},
enumerable: !0,
configurable: !0
}), e;
}(),
f = null;
n.testWebGLDriver = u;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/doublePrecisionUtils.js":
/*!**************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/doublePrecisionUtils.js ***!
\**************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineLibDoublePrecisionUtilsJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, r) {
function o(e, r) {
c[0] = e, c[1] = e - c[0], r[0] = c[0], r[1] = c[1];
}
function n(e, r, o) {
for (var n = 0; n < o; ++n) r[2 * n] = e[n], r[2 * n + 1] = e[n] - r[2 * n];
}
function a(e, r, o) {
for (var n = 0; n < o; ++n) r[n] = e[2 * n] + e[2 * n + 1];
}
function u(e, r, o, a) {
for (var u = 0; u < a; ++u) t[0] = e[u], n(t, c, 1), r[u] = c[0], o[u] = c[1];
}
Object.defineProperty(r, "__esModule", {
value: !0
}), r.encodeDouble = o, r.encodeDoubleArray = n, r.decodeDoubleArray = a, r.encodeDoubleArraySplit = u;
var t = new Float64Array(1),
c = new Float32Array(2);
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/glUtil3D.js":
/*!**************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/glUtil3D.js ***!
\**************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineLibGlUtil3DJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ./DefaultVertexAttributeLocations */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/DefaultVertexAttributeLocations.js"), __webpack_require__(
/*! ./DefaultVertexBufferLayouts */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/DefaultVertexBufferLayouts.js"), __webpack_require__(
/*! ../../../webgl/BufferObject */
"./node_modules/arcgis-js-api/views/webgl/BufferObject.js"), __webpack_require__(
/*! ../../../webgl/Texture */
"./node_modules/arcgis-js-api/views/webgl/Texture.js"), __webpack_require__(
/*! ../../../webgl/VertexArrayObject */
"./node_modules/arcgis-js-api/views/webgl/VertexArrayObject.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, t, r, a, o, n, i) {
function u(e, t, n) {
void 0 === t && (t = a.Pos2), void 0 === n && (n = r.Default3D);
var u = null;
switch (t) {
case a.Pos3Tex:
u = new Float32Array([-1, -1, 0, 0, 0, 1, -1, 0, 1, 0, -1, 1, 0, 0, 1, 1, 1, 0, 1, 1]);
break;
case a.Pos3:
u = new Float32Array([-1, -1, 0, 1, -1, 0, -1, 1, 0, 1, 1, 0]);
break;
case a.Pos2Tex:
u = new Float32Array([-1, -1, 0, 0, 1, -1, 1, 0, -1, 1, 0, 1, 1, 1, 1, 1]);
break;
case a.Pos2:
default:
u = new Float32Array([-1, -1, 1, -1, -1, 1, 1, 1]);
}
return new i(e, n, {
geometry: t
}, {
geometry: o.createVertex(e, 35044, u)
});
}
function l(e, t) {
return void 0 === t && (t = s), new n(e, {
target: 3553,
pixelFormat: 6408,
dataType: 5121,
samplingMode: 9728,
width: t,
height: t
});
}
function c(e, t, r) {
void 0 === r && (r = s);
for (var a = new Uint8Array(r * r * 4), o = 0; o < a.length; o += 4) a[o + 0] = 255 * t[0], a[o + 1] = 255 * t[1], a[o + 2] = 255 * t[2], a[o + 3] = 255 * t[3];
return new n(e, {
target: 3553,
pixelFormat: 6408,
dataType: 5121,
samplingMode: 9728,
width: r,
height: r
}, a);
}
Object.defineProperty(t, "__esModule", {
value: !0
}), t.createQuadVAO = u;
var s = 4;
t.createEmptyTexture = l, t.createColorTexture = c;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/intersectorUtils.js":
/*!**********************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/intersectorUtils.js ***!
\**********************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineLibIntersectorUtilsJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../core/maybe */
"./node_modules/arcgis-js-api/core/maybe.js"), __webpack_require__(
/*! ../../../../core/libs/gl-matrix-2/mat3 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/mat3.js"), __webpack_require__(
/*! ../../../../core/libs/gl-matrix-2/mat3f64 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/mat3f64.js"), __webpack_require__(
/*! ../../../../core/libs/gl-matrix-2/mat4 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/mat4.js"), __webpack_require__(
/*! ../../../../core/libs/gl-matrix-2/mat4f64 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/mat4f64.js"), __webpack_require__(
/*! ../../../../core/libs/gl-matrix-2/quat */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/quat.js"), __webpack_require__(
/*! ../../../../core/libs/gl-matrix-2/quatf64 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/quatf64.js"), __webpack_require__(
/*! ../../../../core/libs/gl-matrix-2/vec3 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec3.js"), __webpack_require__(
/*! ../../../../core/libs/gl-matrix-2/vec3f32 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec3f32.js"), __webpack_require__(
/*! ../../../../core/libs/gl-matrix-2/vec3f64 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec3f64.js"), __webpack_require__(
/*! ../../../../core/libs/gl-matrix-2/vec4 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec4.js"), __webpack_require__(
/*! ../../../../core/libs/gl-matrix-2/vec4f64 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec4f64.js"), __webpack_require__(
/*! ../../support/geometryUtils */
"./node_modules/arcgis-js-api/views/3d/support/geometryUtils.js"), __webpack_require__(
/*! ../../support/geometryUtils/boundedPlane */
"./node_modules/arcgis-js-api/views/3d/support/geometryUtils/boundedPlane.js"), __webpack_require__(
/*! ../../support/geometryUtils/sphere */
"./node_modules/arcgis-js-api/views/3d/support/geometryUtils/sphere.js"), __webpack_require__(
/*! ./Object3D */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/Object3D.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (t, e, r, i, n, a, s, o, h, c, f, l, p, u, m, b, d, y) {
function g(t) {
return function (e, r, i) {
return c.vec3.lerp(P, e, r, i), !b.extrusionContainsPoint(t, P);
};
}
function v(t, e) {
return r.isNone(t) || null == t.layerUid ? null : r.isSome(e.graphicsView) && t.layerUid === e.graphicsView.mockLayerId ? e.graphics : e.map.findLayerByUid(t.layerUid);
}
function O(t, e) {
if (r.isNone(t)) return null;
var i = v(t, e);
if (r.isNone(i)) return null;
if (i === e.graphics) return r.isSome(e.graphicsView) ? r.expect(e.graphicsView.getGraphicFromGraphicUid(t.graphicUid)) : null;
var n = e.allLayerViews.find(function (t) {
return t.layer === i;
});
return n ? x(n, t) : null;
}
function x(t, e) {
return !t || t.suspended ? null : "getGraphicFromIntersectorMetadata" in t && e ? t.getGraphicFromIntersectorMetadata(e) : "getGraphicFromGraphicUid" in t && null != e.graphicUid ? t.getGraphicFromGraphicUid(e.graphicUid) : null;
}
function T(t, e) {
var r = t.metadata.layerUid;
return null != r ? e.map.findLayerByUid(r) : null;
}
function S(t) {
return t.metadata.createGraphic();
}
Object.defineProperty(e, "__esModule", {
value: !0
}), e.sliceFilterPredicate = g;
var M = function () {
function t() {
this.selectionMode = !1, this.hud = !0, this.selectOpaqueTerrainOnly = !0, this.invisibleTerrain = !1, this.backfacesTerrain = !0, this.storeTerrainResults = !0, this.store = 2;
}
return t;
}();
e.IntersectorOptions = M;
var z = function () {
function t() {
this._transform = s.mat4f64.create(), this._transformInverse = new I({
value: this._transform
}, a.mat4.invert, s.mat4f64.create), this._transformInverseTranspose = new I(this._transformInverse, a.mat4.transpose, s.mat4f64.create), this._transformTranspose = new I({
value: this._transform
}, a.mat4.transpose, s.mat4f64.create), this._transformInverseRotation = new I({
value: this._transform
}, i.mat3.normalFromMat4Legacy, n.mat3f64.create);
}
return t.prototype.invalidateLazyTransforms = function () {
this._transformInverse.invalidate(), this._transformInverseTranspose.invalidate(), this._transformTranspose.invalidate(), this._transformInverseRotation.invalidate();
}, Object.defineProperty(t.prototype, "transform", {
get: function get() {
return this._transform;
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(t.prototype, "inverse", {
get: function get() {
return this._transformInverse.value;
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(t.prototype, "inverseTranspose", {
get: function get() {
return this._transformInverseTranspose.value;
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(t.prototype, "inverseRotation", {
get: function get() {
return this._transformInverseRotation.value;
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(t.prototype, "transpose", {
get: function get() {
return this._transformTranspose.value;
},
enumerable: !0,
configurable: !0
}), t.prototype.setTransformMatrix = function (t) {
a.mat4.copy(this._transform, t);
}, t.prototype.multiplyTransform = function (t) {
a.mat4.multiply(this._transform, this._transform, t);
}, t.prototype.set = function (t) {
a.mat4.copy(this._transform, t), this.invalidateLazyTransforms();
}, t.prototype.setAndInvalidateLazyTransforms = function (t, e) {
this.setTransformMatrix(t), this.multiplyTransform(e), this.invalidateLazyTransforms();
}, t;
}();
e.IntersectorTransform = z;
var I = function () {
function t(t, e, r) {
this.original = t, this.update = e, this.dirty = !0, this.transform = r();
}
return t.prototype.invalidate = function () {
this.dirty = !0;
}, Object.defineProperty(t.prototype, "value", {
get: function get() {
return this.dirty && (this.update(this.transform, this.original.value), this.dirty = !1), this.transform;
},
enumerable: !0,
configurable: !0
}), t;
}(),
V = function () {
function t() {
this.min = new _(), this.max = new _(), this.hud = new _(), this.terrain = new _();
}
return t.prototype.init = function (t) {
this.min.init(t), this.max.init(t), this.hud.init(t), this.terrain.init(t), this.all = [];
}, t;
}();
e.IntersectorResults = V;
var _ = function () {
function t(t) {
this.normal = l.vec3f64.create(), this.transformation = s.mat4f64.create(), this._ray = m.ray.create(), this.init(t);
}
return Object.defineProperty(t.prototype, "ray", {
get: function get() {
return this._ray;
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(t.prototype, "hasIntersectionPoint", {
get: function get() {
return null != this.dist;
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(t.prototype, "distanceInRenderSpace", {
get: function get() {
if (null != this.dist) return c.vec3.scale(G, this.ray.direction, this.dist), c.vec3.length(G);
},
enumerable: !0,
configurable: !0
}), t.prototype.getIntersectionPoint = function (t) {
return !!this.hasIntersectionPoint && (c.vec3.scale(G, this.ray.direction, this.dist), c.vec3.add(t, this.ray.origin, G), !0);
}, t.prototype.getTransformedNormal = function (t) {
return c.vec3.copy(R, this.normal), R[3] = 0, p.vec4.transformMat4(R, R, this.transformation), c.vec3.copy(t, R), c.vec3.normalize(t, t), t;
}, t.prototype.set = function (t, e, r, i, n, s, o, h, f, p) {
t instanceof y && (t = {
type: "stage",
obj: t
}), this.dist = r, c.vec3.copy(this.normal, i), a.mat4.copy(this.transformation, n), this.target = t, this.name = e, this.drapedLayerOrder = s, this.center = o ? l.vec3f64.clone(o) : null, this.geometryId = h, this.triangleNr = f, this.drapedLayerGraphicOrder = p;
}, t.prototype.copyFrom = function (t) {
m.ray.copy(t._ray, this._ray), this.dist = t.dist, this.target = t.target, this.name = t.name, this.drapedLayerOrder = t.drapedLayerOrder, this.center = t.center ? l.vec3f64.clone(t.center) : null, this.geometryId = t.geometryId, this.triangleNr = t.triangleNr, this.intersector = t.intersector, this.drapedLayerGraphicOrder = t.drapedLayerGraphicOrder, c.vec3.copy(this.normal, t.normal), a.mat4.copy(this.transformation, t.transformation);
}, t.prototype.init = function (t) {
this.dist = void 0, this.target = void 0, this.name = void 0, this.drapedLayerOrder = void 0, this.drapedLayerGraphicOrder = void 0, this.center = null, this.geometryId = null, this.triangleNr = null, this.intersector = "Stage", t ? m.ray.copy(t, this._ray) : this._ray = m.ray.create();
}, t.prototype.toOwner = function (t) {
if (!this.target) return null;
switch (this.target.type) {
case "stage":
return v(this.target.obj.getMetadata(), t);
case "external":
switch (this.intersector) {
case "PointRenderer":
return T(this.target, t);
case "I3S":
case "LodRenderer":
case "DrapedRenderer":
return v(this.target.metadata, t);
case "TerrainRenderer":
return t.map && t.map.ground;
}
}
return null;
}, t.prototype.toGraphic = function (t) {
if (!this.target) return null;
switch (this.target.type) {
case "stage":
return O(this.target.obj.getMetadata(), t);
case "external":
switch (this.intersector) {
case "PointRenderer":
return S(this.target);
case "I3S":
case "LodRenderer":
case "DrapedRenderer":
return O(this.target.metadata, t);
}
}
return null;
}, t;
}();
e.IntersectorResult = _;
var L = function () {
function t(t) {
this.offset = t, this.tmpVertex = l.vec3f64.create();
}
return t.prototype.applyToVertex = function (t, e, r) {
var i = t + this.localOrigin[0],
n = e + this.localOrigin[1],
a = r + this.localOrigin[2],
s = this.offset / Math.sqrt(i * i + n * n + a * a);
return this.tmpVertex[0] = t + i * s, this.tmpVertex[1] = e + n * s, this.tmpVertex[2] = r + a * s, this.tmpVertex;
}, t.prototype.applyToAABB = function (t) {
var e = t[0] + this.localOrigin[0],
r = t[1] + this.localOrigin[1],
i = t[2] + this.localOrigin[2],
n = t[3] + this.localOrigin[0],
a = t[4] + this.localOrigin[1],
s = t[5] + this.localOrigin[2],
o = this.offset / Math.sqrt(e * e + r * r + i * i);
t[0] += e * o, t[1] += r * o, t[2] += i * o;
var h = this.offset / Math.sqrt(n * n + a * a + s * s);
return t[3] += n * h, t[4] += a * h, t[5] += s * h, t;
}, t;
}();
e.TerrainVerticalOffsetGlobalViewingMode = L;
var q = function () {
function t(t) {
this.offset = t, this.componentLocalOriginLength = 0, this.tmpVertex = l.vec3f64.create(), this.mbs = u.vec4f64.create(), this.obb = {
center: l.vec3f64.create(),
halfSize: f.vec3f32.create(),
quaternion: null
};
}
return Object.defineProperty(t.prototype, "localOrigin", {
set: function set(t) {
this.componentLocalOriginLength = Math.sqrt(t[0] * t[0] + t[1] * t[1] + t[2] * t[2]);
},
enumerable: !0,
configurable: !0
}), t.prototype.applyToVertex = function (t, e, r) {
var i = t,
n = e,
a = r + this.componentLocalOriginLength,
s = this.offset / Math.sqrt(i * i + n * n + a * a);
return this.tmpVertex[0] = t + i * s, this.tmpVertex[1] = e + n * s, this.tmpVertex[2] = r + a * s, this.tmpVertex;
}, t.prototype.applyToAABB = function (t) {
var e = t[0],
r = t[1],
i = t[2] + this.componentLocalOriginLength,
n = t[3],
a = t[4],
s = t[5] + this.componentLocalOriginLength,
o = this.offset / Math.sqrt(e * e + r * r + i * i);
t[0] += e * o, t[1] += r * o, t[2] += i * o;
var h = this.offset / Math.sqrt(n * n + a * a + s * s);
return t[3] += n * h, t[4] += a * h, t[5] += s * h, t;
}, t.prototype.applyToMbs = function (t) {
var e = Math.sqrt(t[0] * t[0] + t[1] * t[1] + t[2] * t[2]),
r = this.offset / e;
return this.mbs[0] = t[0] + t[0] * r, this.mbs[1] = t[1] + t[1] * r, this.mbs[2] = t[2] + t[2] * r, this.mbs[3] = t[3] + t[3] * this.offset / e, this.mbs;
}, t.prototype.applyToObb = function (t) {
var e = t.center,
r = this.offset / Math.sqrt(e[0] * e[0] + e[1] * e[1] + e[2] * e[2]);
this.obb.center[0] = e[0] + e[0] * r, this.obb.center[1] = e[1] + e[1] * r, this.obb.center[2] = e[2] + e[2] * r, c.vec3.transformQuat(this.obb.halfSize, t.halfSize, t.quaternion), c.vec3.add(this.obb.halfSize, this.obb.halfSize, t.center);
var i = this.offset / Math.sqrt(this.obb.halfSize[0] * this.obb.halfSize[0] + this.obb.halfSize[1] * this.obb.halfSize[1] + this.obb.halfSize[2] * this.obb.halfSize[2]);
return this.obb.halfSize[0] += this.obb.halfSize[0] * i, this.obb.halfSize[1] += this.obb.halfSize[1] * i, this.obb.halfSize[2] += this.obb.halfSize[2] * i, c.vec3.subtract(this.obb.halfSize, this.obb.halfSize, t.center), o.quat.conjugate(U, t.quaternion), c.vec3.transformQuat(this.obb.halfSize, this.obb.halfSize, U), this.obb.halfSize[0] *= this.obb.halfSize[0] < 0 ? -1 : 1, this.obb.halfSize[1] *= this.obb.halfSize[1] < 0 ? -1 : 1, this.obb.halfSize[2] *= this.obb.halfSize[2] < 0 ? -1 : 1, this.obb.quaternion = t.quaternion, this.obb;
}, t;
}();
e.I3SVerticalOffsetGlobalViewingMode = q;
var w = function () {
function t(t) {
this.offset = t, this.sphere = d.create(), this.tmpVertex = l.vec3f64.create();
}
return t.prototype.applyToVertex = function (t, e, r) {
var i = this.objectTransform.transform,
n = i[0] * t + i[4] * e + i[8] * r + i[12],
a = i[1] * t + i[5] * e + i[9] * r + i[13],
s = i[2] * t + i[6] * e + i[10] * r + i[14],
o = this.offset / Math.sqrt(n * n + a * a + s * s);
n += n * o, a += a * o, s += s * o;
var h = this.objectTransform.inverse;
return this.tmpVertex[0] = h[0] * n + h[4] * a + h[8] * s + h[12], this.tmpVertex[1] = h[1] * n + h[5] * a + h[9] * s + h[13], this.tmpVertex[2] = h[2] * n + h[6] * a + h[10] * s + h[14], this.tmpVertex;
}, t.prototype.applyToMinMax = function (t, e) {
var r = this.offset / Math.sqrt(t[0] * t[0] + t[1] * t[1] + t[2] * t[2]);
t[0] += t[0] * r, t[1] += t[1] * r, t[2] += t[2] * r;
var i = this.offset / Math.sqrt(e[0] * e[0] + e[1] * e[1] + e[2] * e[2]);
e[0] += e[0] * i, e[1] += e[1] * i, e[2] += e[2] * i;
}, t.prototype.applyToAABB = function (t) {
var e = this.offset / Math.sqrt(t[0] * t[0] + t[1] * t[1] + t[2] * t[2]);
t[0] += t[0] * e, t[1] += t[1] * e, t[2] += t[2] * e;
var r = this.offset / Math.sqrt(t[3] * t[3] + t[4] * t[4] + t[5] * t[5]);
return t[3] += t[3] * r, t[4] += t[4] * r, t[5] += t[5] * r, t;
}, t.prototype.applyToBoundingSphere = function (t, e) {
var r = Math.sqrt(e[0] * e[0] + e[1] * e[1] + e[2] * e[2]),
i = this.offset / r;
return this.sphere.center[0] = e[0] + e[0] * i, this.sphere.center[1] = e[1] + e[1] * i, this.sphere.center[2] = e[2] + e[2] * i, this.sphere.radius = t + t * this.offset / r, this.sphere;
}, t;
}();
e.Object3DVerticalOffsetGlobalViewingMode = w;
var j = function () {
function t(t) {
this.terrain = new L(t), this.i3s = new q(t), this.object3D = new w(t);
}
return t;
}();
e.VerticalOffsetForGlobalViewingMode = j, e.TERRAIN_ID = "terrain";
var P = l.vec3f64.create(),
G = l.vec3f64.create(),
R = u.vec4f64.create(),
U = h.quatf64.create();
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/screenSizePerspectiveUtils.js":
/*!********************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/screenSizePerspectiveUtils.js ***!
\********************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineLibScreenSizePerspectiveUtilsJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../core/mathUtils */
"./node_modules/arcgis-js-api/core/mathUtils.js"), __webpack_require__(
/*! ../../support/earthUtils */
"./node_modules/arcgis-js-api/views/3d/support/earthUtils.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, a, t, r) {
function i(e) {
return new g(e, a.defaultDescription);
}
function n(e) {
var t = a.defaultDescription.curvatureDependent,
r = a.defaultDescription.scaleStart,
i = a.defaultDescription.scaleFallOffRange;
return new g(e, {
curvatureDependent: {
min: {
curvature: t.min.curvature,
tiltAngle: t.min.tiltAngle,
scaleFallOffFactor: P.curvatureDependent.min.scaleFallOffFactor
},
max: {
curvature: t.max.curvature,
tiltAngle: t.max.tiltAngle,
scaleFallOffFactor: P.curvatureDependent.max.scaleFallOffFactor
}
},
scaleStart: r,
scaleFallOffRange: i,
minPixelSize: P.minPixelSize
});
}
function l(e) {
return Math.abs(e * e * e);
}
function c(e, a, t, r) {
void 0 === r && (r = x);
var i = t.parameters,
n = t.paddingPixelsOverride;
return r.scale = Math.min(i.divisor / (a - i.offset), 1), r.factor = l(e), r.minPixelSize = i.minPixelSize, r.paddingPixels = n, r;
}
function s(e, a) {
return 0 === e ? a.minPixelSize : a.minPixelSize * (1 + 2 * a.paddingPixels / e);
}
function o(e, a) {
return Math.max(t.lerp(e * a.scale, e, a.factor), s(e, a));
}
function u(e, a, r) {
void 0 === r && (r = [0, 0]);
var i = Math.min(Math.max(a.scale, s(e[1], a) / e[1]), 1);
return r[0] = t.lerp(e[0] * i, e[0], a.factor), r[1] = t.lerp(e[1] * i, e[1], a.factor), r;
}
function d(e, a, t) {
var r = c(e, a, t);
return r.minPixelSize = 0, r.paddingPixels = 0, o(1, r);
}
function f(e, a, t, r) {
return r.scale = d(e, a, t), r.factor = 0, r.minPixelSize = t.parameters.minPixelSize, r.paddingPixels = t.paddingPixelsOverride, r;
}
function p(e, a, t) {
void 0 === t && (t = [0, 0]);
var r = Math.min(Math.max(a.scale, s(e[1], a) / e[1]), 1);
return t[0] = e[0] * r, t[1] = e[1] * r, t;
}
function m(e, a, t, r) {
return o(e, c(a, t, r));
}
function v() {
return {
camera: {
distance: 0,
fovY: 0
},
divisor: 0,
offset: 0,
minPixelSize: 0,
paddingPixels: 0
};
}
function h(e, a) {
return a.camera.distance = e.camera.distance, a.camera.fovY = e.camera.fovY, a.divisor = e.divisor, a.offset = e.offset, a.minPixelSize = e.minPixelSize, a;
}
Object.defineProperty(a, "__esModule", {
value: !0
}), a.getSettings = i, a.getLabelSettings = n, a.perspectiveFactor = l, a.scaleFactor = c, a.applyScaleFactor = o, a.applyScaleFactorVec2 = u, a.precomputeScale = d, a.precomputeScaleFactor = f, a.applyPrecomputedScaleFactorVec2 = p, a.scale = m;
var g = function () {
function e(e, a, t, r) {
void 0 === t && (t = v()), this.viewingMode = e, this.description = a, this.parameters = t, this._paddingPixelsOverride = r, "local" === this.viewingMode ? (this.coverageCompensation = this.surfaceCoverageCompensationLocal, this.calculateCurvatureDependentParameters = this.calculateCurvatureDependentParametersLocal) : (this.coverageCompensation = this.surfaceCoverageCompensationGlobal, this.calculateCurvatureDependentParameters = this.calculateCurvatureDependentParametersGlobal);
}
return Object.defineProperty(e.prototype, "paddingPixelsOverride", {
get: function get() {
return this._paddingPixelsOverride || this.parameters.paddingPixels;
},
enumerable: !0,
configurable: !0
}), e.prototype.update = function (e) {
return (!this.parameters || this.parameters.camera.fovY !== e.fovY || this.parameters.camera.distance !== e.distance) && (this.calculateParameters(e, this.parameters), !0);
}, e.prototype.overridePadding = function (a) {
return a !== this.paddingPixelsOverride ? new e(this.viewingMode, this.description, this.parameters, a) : this;
}, e.prototype.calculateParameters = function (e, a) {
var t = this.description,
r = t.scaleStart,
i = t.scaleFallOffRange,
n = t.minPixelSize,
l = e.fovY,
c = e.distance,
s = this.calculateCurvatureDependentParameters(e),
o = this.coverageCompensation(e, s),
u = s.tiltAngle,
d = s.scaleFallOffFactor,
f = Math.sin(u) * c,
p = .5 * Math.PI - u - l * (.5 - r * o),
m = f / Math.cos(p),
v = p + l * i * o,
h = f / Math.cos(v),
g = (m - d * h) / (1 - d);
return a.camera.fovY = e.fovY, a.camera.distance = e.distance, a.offset = g, a.divisor = m - g, a.minPixelSize = n, a;
}, e.prototype.calculateCurvatureDependentParametersLocal = function (e, a) {
return void 0 === a && (a = F), a.tiltAngle = this.description.curvatureDependent.min.tiltAngle, a.scaleFallOffFactor = this.description.curvatureDependent.min.scaleFallOffFactor, a;
}, e.prototype.calculateCurvatureDependentParametersGlobal = function (e, a) {
void 0 === a && (a = F);
var i = this.description.curvatureDependent,
n = 1 + e.distance / r.earthRadius,
l = Math.sqrt(n * n - 1),
c = [i.min.curvature, i.max.curvature],
s = c[0],
o = c[1],
u = t.clamp((l - s) / (o - s), 0, 1),
d = [i.min, i.max],
f = d[0],
p = d[1];
return a.tiltAngle = t.lerp(f.tiltAngle, p.tiltAngle, u), a.scaleFallOffFactor = t.lerp(f.scaleFallOffFactor, p.scaleFallOffFactor, u), a;
}, e.prototype.surfaceCoverageCompensationLocal = function (e, a) {
return (e.fovY - a.tiltAngle) / e.fovY;
}, e.prototype.surfaceCoverageCompensationGlobal = function (e, a) {
var t = r.earthRadius * r.earthRadius,
i = a.tiltAngle + .5 * Math.PI,
n = e.fovY,
l = e.distance,
c = l * l,
s = c + t - 2 * Math.cos(i) * l * r.earthRadius,
o = Math.sqrt(s),
u = Math.sqrt(s - t);
return (Math.acos(u / o) - Math.asin(r.earthRadius / (o / Math.sin(i))) + .5 * n) / n;
}, e;
}();
a.defaultDescription = {
curvatureDependent: {
min: {
curvature: t.deg2rad(10),
tiltAngle: t.deg2rad(12),
scaleFallOffFactor: .5
},
max: {
curvature: t.deg2rad(70),
tiltAngle: t.deg2rad(40),
scaleFallOffFactor: .8
}
},
scaleStart: .3,
scaleFallOffRange: .65,
minPixelSize: 0
};
var P = {
curvatureDependent: {
min: {
scaleFallOffFactor: .7
},
max: {
scaleFallOffFactor: .95
}
},
minPixelSize: 14
};
a.copyParameters = h;
var x = {
scale: 0,
factor: 0,
minPixelSize: 0,
paddingPixels: 0
},
F = {
tiltAngle: 0,
scaleFallOffFactor: 0
};
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/materials/DefaultMaterial.js":
/*!***************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/materials/DefaultMaterial.js ***!
\***************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineMaterialsDefaultMaterialJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../core/tsSupport/extendsHelper */
"./node_modules/arcgis-js-api/core/tsSupport/extendsHelper.js"), __webpack_require__(
/*! ../../../../core/tsSupport/assignHelper */
"./node_modules/arcgis-js-api/core/tsSupport/assignHelper.js"), __webpack_require__(
/*! ../../../../core/maybe */
"./node_modules/arcgis-js-api/core/maybe.js"), __webpack_require__(
/*! ../../../../core/libs/gl-matrix-2/mat3f64 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/mat3f64.js"), __webpack_require__(
/*! ../../../../core/libs/gl-matrix-2/vec3 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec3.js"), __webpack_require__(
/*! ../../../../core/libs/gl-matrix-2/vec3f64 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec3f64.js"), __webpack_require__(
/*! ../../support/buffer/InterleavedLayout */
"./node_modules/arcgis-js-api/views/3d/support/buffer/InterleavedLayout.js"), __webpack_require__(
/*! ../core/shaderLibrary/DiscardOrAdjustAlpha.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/DiscardOrAdjustAlpha.glsl.js"), __webpack_require__(
/*! ../lib/GLMaterialTexture */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/GLMaterialTexture.js"), __webpack_require__(
/*! ../lib/Material */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/Material.js"), __webpack_require__(
/*! ../lib/Util */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/Util.js"), __webpack_require__(
/*! ./internal/bufferWriterUtils */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/materials/internal/bufferWriterUtils.js"), __webpack_require__(
/*! ./internal/MaterialUtil */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/materials/internal/MaterialUtil.js"), __webpack_require__(
/*! ./renderers/InstancedRenderer */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/materials/renderers/InstancedRenderer.js"), __webpack_require__(
/*! ./renderers/MergedRenderer */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/materials/renderers/MergedRenderer.js"), __webpack_require__(
/*! ../shaders/DefaultMaterialTechnique */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/shaders/DefaultMaterialTechnique.js"), __webpack_require__(
/*! ../../../webgl/renderState */
"./node_modules/arcgis-js-api/views/webgl/renderState.js"), __webpack_require__(
/*! ../../../webgl/renderState */
"./node_modules/arcgis-js-api/views/webgl/renderState.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, t, i, r, a, n, s, o, c, l, u, p, h, f, m, d, v, g, b, P) {
function y(e, t) {
return e ? t ? 6 : 9 : 4;
}
function x(e) {
return e.cullFace ? 0 !== e.cullFace : !e.slicePlaneEnabled && !e.transparent && !e.doubleSided;
}
var q = h.assert,
S = function (e) {
function t(i, r) {
var a = e.call(this, r) || this;
return a.supportsEdges = !0, a.techniqueConfig = new g.DefaultMaterialTechniqueConfiguration(), a.params = m.copyParameters(i, I), a.vertexBufferLayout = t.getVertexBufferLayout(a.params), a.instanceBufferLayout = i.instanced ? t.getInstanceBufferLayout(a.params) : null, a;
}
return i(t, e), t.prototype.isVisibleInPass = function (e) {
return 3 !== e || this.params.castShadows;
}, t.prototype.isVisible = function () {
var t = this.params;
if (!e.prototype.isVisible.call(this) || 0 === t.layerOpacity) return !1;
var i = t.instanced,
r = t.vertexColors,
a = t.symbolColors,
n = !!i && i.indexOf("color") > -1,
s = t.vvColorEnabled,
o = "replace" === t.colorMixMode,
c = t.opacity > 0,
l = t.externalColor && t.externalColor[3] > 0;
return r && (n || s || a) ? !!o || c : r ? o ? l : c : n || s || a ? !!o || c : o ? l : c;
}, t.prototype.setParameterValues = function (e) {
var t = this.params;
for (var i in e) "instanced" === i && q(e.instanced === t.instanced, "Can not change instanced attributes"), "textureId" === i && q(t.textureId, "Can only change texture of material that already has a texture"), "vertexColors" === i && !0 === e[i] && e[i] !== t[i] && q(t.vertexColors, "Can not enable vertex colors after DefaultMaterial creation"), t[i] = e[i];
this.notifyDirty("matChanged");
}, t.prototype.getParameters = function () {
return this.params;
}, t.prototype.getTechniqueConfig = function (e) {
return this.techniqueConfig.output = e, this.techniqueConfig.hasNormalTexture = !!this.params.normalTextureId, this.techniqueConfig.hasColorTexture = !!this.params.textureId, this.techniqueConfig.vertexTangents = this.params.vertexTangents, this.techniqueConfig.instanced = !!this.params.instanced, this.techniqueConfig.instancedDoublePrecision = this.params.instancedDoublePrecision, this.techniqueConfig.vvSize = this.params.vvSizeEnabled, this.techniqueConfig.verticalOffset = null !== this.params.verticalOffset, this.techniqueConfig.screenSizePerspective = null !== this.params.screenSizePerspective, this.techniqueConfig.slice = this.params.slicePlaneEnabled, this.techniqueConfig.sliceHighlightDisabled = this.params.sliceHighlightDisabled, this.techniqueConfig.alphaDiscardMode = "opaque" === this.params.textureAlphaMode ? 1 : "mask" === this.params.textureAlphaMode ? 2 : "maskBlend" === this.params.textureAlphaMode ? 3 : 0, this.techniqueConfig.normalsTypeDerivate = "screenDerivative" === this.params.normals, 0 === e && (this.techniqueConfig.treeRendering = !!this.params.treeRendering, this.techniqueConfig.vertexColors = this.params.vertexColors, this.techniqueConfig.symbolColors = this.params.symbolColors, this.techniqueConfig.doubleSidedMode = this.params.doubleSided && "normal" === this.params.doubleSidedType ? 1 : this.params.doubleSided && "winding-order" === this.params.doubleSidedType ? 2 : 0, this.techniqueConfig.instancedColor = !!this.params.instanced && this.params.instanced.indexOf("color") > -1, this.techniqueConfig.receiveShadows = this.params.receiveShadows, this.techniqueConfig.receiveAmbientOcclusion = this.params.receiveSSAO, this.techniqueConfig.vvColor = this.params.vvColorEnabled, this.techniqueConfig.textureAlphaPremultiplied = !!this.params.textureAlphaPremultiplied, this.techniqueConfig.usePBR = this.params.usePBR, this.techniqueConfig.hasMetalnessAndRoughnessTexture = !!this.params.metallicRoughnessTextureId, this.techniqueConfig.hasEmissionTexture = !!this.params.emissiveTextureId, this.techniqueConfig.hasOcclusionTexture = !!this.params.occlusionTextureId, this.techniqueConfig.offsetBackfaces = !(!this.params.transparent || !this.params.offsetTransparentBackfaces)), this.techniqueConfig;
}, t.prototype.intersect = function (e, t, i, r, n, o, c) {
if (null !== this.params.verticalOffset) {
var l = r.camera;
s.vec3.set(W, i[12], i[13], i[14]);
var u = null;
switch (r.viewingMode) {
case "global":
u = s.vec3.normalize(B, W);
break;
case "local":
u = s.vec3.copy(B, E);
}
var p = 0;
if (null !== this.params.verticalOffset) {
var h = s.vec3.subtract(k, W, l.eye),
f = s.vec3.length(h),
d = s.vec3.scale(h, h, 1 / f),
v = null;
this.params.screenSizePerspective && (v = s.vec3.dot(u, d)), p += m.verticalOffsetAtDistance(l, f, this.params.verticalOffset, v, this.params.screenSizePerspective);
}
s.vec3.scale(u, u, p), s.vec3.transformMat3(L, u, r.transform.inverseRotation), n = s.vec3.subtract(R, n, L), o = s.vec3.subtract(z, o, L);
}
m.intersectTriangleGeometry(e, t, r, n, o, a.isSome(r.options.verticalOffset) ? r.options.verticalOffset.object3D : void 0, c);
}, t.prototype.getGLMaterials = function () {
return {
color: C,
depthShadowMap: w,
normal: D,
depth: T,
highlight: M
};
}, t.prototype.createRenderer = function (e, t) {
return this.params.softwareInstanced ? new d(e, t, this) : new v(e, t, this);
}, t.prototype.createBufferWriter = function () {
return new O(this.vertexBufferLayout, this.instanceBufferLayout);
}, t.getVertexBufferLayout = function (e) {
var t = e.textureId || e.normalTextureId || e.metallicRoughnessTextureId || e.emissiveTextureId || e.occlusionTextureId,
i = c.newLayout().vec3f("position").vec3f("normal");
return e.vertexTangents && i.vec4f("tangent"), t && i.vec2f("uv0"), e.vertexColors && i.vec4u8("color"), e.symbolColors && i.vec4u8("symbolColor"), i;
}, t.getInstanceBufferLayout = function (e) {
var t = c.newLayout();
return t = e.instancedDoublePrecision ? t.vec3f("modelOriginHi").vec3f("modelOriginLo").mat3f("model").mat3f("modelNormal") : t.mat4f("model").mat4f("modelNormal"), e.instanced && e.instanced.indexOf("color") > -1 && (t = t.vec4f("instanceColor")), e.instanced && e.instanced.indexOf("featureAttribute") > -1 && (t = t.vec4f("instanceFeatureAttribute")), t;
}, t;
}(p.Material),
C = function (e) {
function t(t) {
var i = this,
r = t.material,
a = r.getParameters();
i = e.call(this, u.makeCtorParameters(t, a)) || this, i.params = m.copyParameters(a);
var n = i.params;
return i.slot = y(n.transparent, n.writeDepth), i.technique = i.techniqueRep.acquireAndReleaseExisting(g.DefaultMaterialTechnique, i.material.getTechniqueConfig(0), i.technique), i.selectPipeline(0), i;
}
return i(t, e), t.prototype.selectPipeline = function (e) {
var t = this.params,
i = 0 === e ? A(t) : null;
this.pipelineState = P.makePipelineState({
blending: i,
culling: V(t),
depthTest: {
func: 513
},
depthWrite: t.writeDepth && P.defaultDepthWriteParams,
colorWrite: P.defaultColorWriteParams
});
}, t.prototype.beginSlot = function (e) {
return e === this.slot;
}, t.prototype.getProgram = function () {
return this.technique.program;
}, t.prototype.getPrograms = function () {
return null;
}, t.prototype.updateParameters = function () {
this.params = m.copyParameters(this.material.getParameters()), this.slot = y(this.params.transparent, this.params.writeDepth), this.updateTexture(this.params.textureId), this.technique = this.techniqueRep.acquireAndReleaseExisting(g.DefaultMaterialTechnique, this.material.getTechniqueConfig(0), this.technique), this.selectPipeline(0);
}, t.prototype._updateShadowState = function (e) {
e.shadowMappingEnabled !== this.params.receiveShadows && (this.material.setParameterValues({
receiveShadows: e.shadowMappingEnabled
}), this.updateParameters());
}, t.prototype.bind = function (e, t) {
var i = this.params;
this._updateShadowState(t);
var r = this.technique.program;
e.bindProgram(r), e.setPipelineState(this.pipelineState), this.technique.bindPass(e, i, t), m.bindVerticalOffset(i.verticalOffset, t, r), m.bindScreenSizePerspective(i.screenSizePerspective, r), this.bindTexture(e, r);
}, t.prototype.release = function () {}, t.prototype.bindView = function (e) {
var t = this.technique.program,
i = this.params,
r = i.instancedDoublePrecision ? o.vec3f64.fromValues(e.viewInvTransp[3], e.viewInvTransp[7], e.viewInvTransp[11]) : e.origin;
m.bindView(r, e.view, t), m.bindCamPos(r, e.viewInvTransp, t), i.instancedDoublePrecision && m.bindViewOriginDouble(r, t), i.slicePlaneEnabled && m.bindSlicePlane(r, e.slicePlane, t), e.shadowMappingEnabled && e.shadowMap.bindView(t, r);
}, t.prototype.bindInstance = function (e) {
var t = this.technique.program;
t.setUniformMatrix4fv("model", e.transformation), t.setUniformMatrix4fv("modelNormal", e.transformationNormal);
}, t.prototype.getDrawMode = function () {
return 4;
}, t;
}(u),
T = function (e) {
function t(t) {
var i = this,
r = t.material;
return i = e.call(this, u.makeCtorParameters(t, r.getParameters())) || this, i.updateParameters(), i;
}
return i(t, e), t.prototype.beginSlot = function (e) {
return e === this.slot;
}, t.prototype.getProgram = function () {
return this.technique.program;
}, t.prototype.getPrograms = function () {
return null;
}, t.prototype.selectPipeline = function () {
var e = this.params;
this.pipelineState = P.makePipelineState({
culling: V(e),
depthTest: {
func: 513
},
depthWrite: e.writeDepth && P.defaultDepthWriteParams,
colorWrite: P.defaultColorWriteParams
});
}, t.prototype.selectSlot = function () {
this.slot = y(this.params.transparent, this.params.writeDepth);
}, t.prototype.updateParameters = function () {
this.params = m.copyParameters(this.material.getParameters()), this.technique = this.techniqueRep.acquireAndReleaseExisting(g.DefaultMaterialTechnique, this.material.getTechniqueConfig(1), this.technique), this.selectPipeline(), this.selectSlot(), this.updateTexture(this.params.textureId);
}, t.prototype.bind = function (e, t) {
var i = this.technique.program,
r = this.params;
e.bindProgram(i), e.setPipelineState(this.pipelineState), this.technique.bindPass(e, r, t), m.bindVerticalOffset(r.verticalOffset, t, i), m.bindScreenSizePerspective(r.screenSizePerspective, i), this.bindTexture(e, i);
}, t.prototype.release = function () {}, t.prototype.bindView = function (e) {
var t = this.technique.program,
i = this.params,
r = i.instancedDoublePrecision ? o.vec3f64.fromValues(e.viewInvTransp[3], e.viewInvTransp[7], e.viewInvTransp[11]) : e.origin;
m.bindView(r, e.view, t), i.slicePlaneEnabled && m.bindSlicePlane(r, e.slicePlane, t), i.screenSizePerspective && m.bindCamPos(r, e.viewInvTransp, t), i.instancedDoublePrecision && m.bindViewOriginDouble(r, t);
}, t.prototype.bindInstance = function (e) {
this.technique.program.setUniformMatrix4fv("model", e.transformation);
}, t.prototype.getDrawMode = function () {
return 4;
}, t;
}(u),
w = function (e) {
function t(t) {
return e.call(this, t) || this;
}
return i(t, e), t.prototype.updateParameters = function () {
this.params = m.copyParameters(this.material.getParameters()), this.technique = this.techniqueRep.acquireAndReleaseExisting(g.DefaultMaterialTechnique, this.material.getTechniqueConfig(3), this.technique), this.selectPipeline(), this.selectSlot(), this.updateTexture(this.params.textureId);
}, t;
}(T),
D = function (e) {
function t(t) {
var i = this,
r = t.material,
a = r.getParameters();
return i = e.call(this, u.makeCtorParameters(t, a)) || this, i.params = m.copyParameters(a), i.technique = i.techniqueRep.acquireAndReleaseExisting(g.DefaultMaterialTechnique, i.material.getTechniqueConfig(2), i.technique), i.selectPipeline(), i.selectSlot(), i;
}
return i(t, e), t.prototype.beginSlot = function (e) {
return e === this.slot;
}, t.prototype.getProgram = function () {
return this.technique.program;
}, t.prototype.getPrograms = function () {
return null;
}, t.prototype.selectPipeline = function () {
var e = this.params;
this.pipelineState = P.makePipelineState({
culling: V(e),
depthTest: {
func: 513
},
depthWrite: e.writeDepth && P.defaultDepthWriteParams,
colorWrite: P.defaultColorWriteParams
});
}, t.prototype.selectSlot = function () {
this.slot = y(this.params.transparent, this.params.writeDepth);
}, t.prototype.updateParameters = function () {
this.params = m.copyParameters(this.material.getParameters()), this.technique = this.techniqueRep.acquireAndReleaseExisting(g.DefaultMaterialTechnique, this.material.getTechniqueConfig(2), this.technique), this.selectPipeline(), this.selectSlot(), this.updateTexture(this.params.textureId);
}, t.prototype.bind = function (e, t) {
var i = this.technique.program,
r = this.params;
e.bindProgram(i), e.setPipelineState(this.pipelineState), this.technique.bindPass(e, r, t), m.bindVerticalOffset(r.verticalOffset, t, i), m.bindScreenSizePerspective(r.screenSizePerspective, i), this.bindTexture(e, i);
}, t.prototype.release = function () {}, t.prototype.bindView = function (e) {
var t = this.technique.program,
i = this.params,
r = i.instancedDoublePrecision ? o.vec3f64.fromValues(e.viewInvTransp[3], e.viewInvTransp[7], e.viewInvTransp[11]) : e.origin;
m.bindView(r, e.view, t), t.setUniformMatrix4fv("viewNormal", e.viewInvTransp), i.slicePlaneEnabled && m.bindSlicePlane(r, e.slicePlane, t), i.screenSizePerspective && m.bindCamPos(r, e.viewInvTransp, t), i.instancedDoublePrecision && m.bindViewOriginDouble(r, t);
}, t.prototype.bindInstance = function (e) {
var t = this.technique.program;
t.setUniformMatrix4fv("model", e.transformation), t.setUniformMatrix4fv("modelNormal", e.transformationNormal);
}, t.prototype.getDrawMode = function () {
return 4;
}, t;
}(u),
M = function (e) {
function t(t) {
var i = this,
r = t.material;
return i = e.call(this, u.makeCtorParameters(t, r.getParameters())) || this, i.updateParameters(), i;
}
return i(t, e), t.prototype.beginSlot = function (e) {
return e === this.slot;
}, t.prototype.getProgram = function () {
return this.technique.program;
}, t.prototype.getPrograms = function () {
return null;
}, t.prototype.selectPipeline = function () {
var e = this.params;
this.pipelineState = P.makePipelineState({
culling: V(e),
depthTest: {
func: 513
},
depthWrite: e.writeDepth && P.defaultDepthWriteParams,
colorWrite: P.defaultColorWriteParams
});
}, t.prototype.selectSlot = function () {
this.slot = y(this.params.transparent, this.params.writeDepth);
}, t.prototype.updateParameters = function () {
this.params = m.copyParameters(this.material.getParameters()), this.technique = this.techniqueRep.acquireAndReleaseExisting(g.DefaultMaterialTechnique, this.material.getTechniqueConfig(4), this.technique), this.selectPipeline(), this.selectSlot(), this.updateTexture(this.params.textureId);
}, t.prototype.bind = function (e, t) {
var i = this.technique.program,
r = this.params;
e.bindProgram(i), e.setPipelineState(this.pipelineState), this.technique.bindPass(e, r, t), m.bindVerticalOffset(r.verticalOffset, t, i), m.bindScreenSizePerspective(r.screenSizePerspective, i), this.bindTexture(e, i);
}, t.prototype.release = function () {}, t.prototype.bindView = function (e) {
var t = this.technique.program,
i = this.params,
r = i.instancedDoublePrecision ? o.vec3f64.fromValues(e.viewInvTransp[3], e.viewInvTransp[7], e.viewInvTransp[11]) : e.origin;
m.bindView(r, e.view, t), i.slicePlaneEnabled && m.bindSlicePlane(r, e.slicePlane, t), i.screenSizePerspective && m.bindCamPos(r, e.viewInvTransp, t), i.instancedDoublePrecision && m.bindViewOriginDouble(r, t);
}, t.prototype.bindInstance = function (e) {
var t = this.technique.program;
t.setUniformMatrix4fv("model", e.transformation), t.setUniformMatrix4fv("modelNormal", e.transformationNormal);
}, t.prototype.getDrawMode = function () {
return 4;
}, t;
}(u);
!function (e) {
e.COLOR_GAMMA = 2.1;
}(S || (S = {}));
var I = {
textureId: void 0,
initTextureTransparent: !1,
usePBR: !1,
normalTextureId: void 0,
vertexTangents: !1,
occlusionTextureId: void 0,
emissiveTextureId: void 0,
metallicRoughnessTextureId: void 0,
emissiveFactor: [0, 0, 0],
metallicFactor: 0,
roughnessFactor: 1,
reflectanceFactor: .5,
ambient: [.2, .2, .2],
diffuse: [.8, .8, .8],
specular: [0, 0, 0],
externalColor: [1, 1, 1, 1],
colorMixMode: "multiply",
opacity: 1,
layerOpacity: 1,
vertexColors: !1,
symbolColors: !1,
doubleSided: !1,
doubleSidedType: "normal",
cullFace: void 0,
softwareInstanced: !1,
instanced: void 0,
instancedDoublePrecision: !1,
normals: "default",
receiveSSAO: !0,
receiveShadows: !1,
castShadows: !0,
verticalOffset: null,
screenSizePerspective: null,
slicePlaneEnabled: !1,
sliceHighlightDisabled: !1,
offsetTransparentBackfaces: !1,
vvSizeEnabled: !1,
vvSizeMinSize: [1, 1, 1],
vvSizeMaxSize: [100, 100, 100],
vvSizeOffset: [0, 0, 0],
vvSizeFactor: [1, 1, 1],
vvSizeValue: [1, 1, 1],
vvColorEnabled: !1,
vvColorValues: [0, 0, 0, 0, 0, 0, 0, 0],
vvColorColors: [1, 0, 0, 0, 1, 0, 0, 0, 1, 0, 0, 0, 1, 0, 0, 0, 1, 0, 0, 0, 1, 0, 0, 0, 1, 0, 0, 0, 1, 0, 0, 0],
vvSymbolAnchor: [0, 0, 0],
vvSymbolRotationMatrix: n.mat3f64.create(),
transparent: !1,
writeDepth: !0,
textureAlphaMode: "blend",
textureAlphaCutoff: l.TEXTURE_ALPHA_CUTOFF_DEFAULT,
textureAlphaPremultiplied: !1
},
O = function () {
function e(e, t) {
this.vertexBufferLayout = e, this.instanceBufferLayout = t;
}
return e.prototype.allocate = function (e) {
return this.vertexBufferLayout.createBuffer(e);
}, e.prototype.elementCount = function (e) {
return e.indices.position.length;
}, e.prototype.write = function (e, t, i, r) {
f.writeDefaultAttributes(t, this.vertexBufferLayout, e.transformation, e.invTranspTransformation, i, r);
}, e;
}(),
A = function A(e) {
return e.transparent && b.separateBlendingParams(770, 1, 771, 771);
},
V = function V(e) {
return x(e) && {
face: 1 === e.cullFace ? 1028 : 1029,
mode: 2305
};
},
R = o.vec3f64.create(),
z = o.vec3f64.create(),
E = o.vec3f64.fromValues(0, 0, 1),
B = o.vec3f64.create(),
L = o.vec3f64.create(),
W = o.vec3f64.create(),
k = o.vec3f64.create();
return S;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/materials/RibbonLineMaterial.js":
/*!******************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/materials/RibbonLineMaterial.js ***!
\******************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineMaterialsRibbonLineMaterialJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../core/tsSupport/extendsHelper */
"./node_modules/arcgis-js-api/core/tsSupport/extendsHelper.js"), __webpack_require__(
/*! ../../../../core/tsSupport/assignHelper */
"./node_modules/arcgis-js-api/core/tsSupport/assignHelper.js"), __webpack_require__(
/*! ../../../../core/Logger */
"./node_modules/arcgis-js-api/core/Logger.js"), __webpack_require__(
/*! ../../../../core/mathUtils */
"./node_modules/arcgis-js-api/core/mathUtils.js"), __webpack_require__(
/*! ../../../../core/maybe */
"./node_modules/arcgis-js-api/core/maybe.js"), __webpack_require__(
/*! ../../../../core/screenUtils */
"./node_modules/arcgis-js-api/core/screenUtils.js"), __webpack_require__(
/*! ../../../../core/libs/gl-matrix-2/vec2 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec2.js"), __webpack_require__(
/*! ../../../../core/libs/gl-matrix-2/vec3 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec3.js"), __webpack_require__(
/*! ../../../../core/libs/gl-matrix-2/vec3f64 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec3f64.js"), __webpack_require__(
/*! ../../support/geometryUtils */
"./node_modules/arcgis-js-api/views/3d/support/geometryUtils.js"), __webpack_require__(
/*! ../../support/buffer/InterleavedLayout */
"./node_modules/arcgis-js-api/views/3d/support/buffer/InterleavedLayout.js"), __webpack_require__(
/*! ../lib/ComponentUtils */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/ComponentUtils.js"), __webpack_require__(
/*! ../lib/geometryDataUtils */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/geometryDataUtils.js"), __webpack_require__(
/*! ../lib/GLMaterial */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/GLMaterial.js"), __webpack_require__(
/*! ../lib/Material */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/Material.js"), __webpack_require__(
/*! ../lib/Util */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/Util.js"), __webpack_require__(
/*! ./VisualVariableMaterialParameters */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/materials/VisualVariableMaterialParameters.js"), __webpack_require__(
/*! ./internal/MaterialUtil */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/materials/internal/MaterialUtil.js"), __webpack_require__(
/*! ./renderers/MergedRenderer */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/materials/renderers/MergedRenderer.js"), __webpack_require__(
/*! ../shaders/RibbonLineTechnique */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/shaders/RibbonLineTechnique.js"), __webpack_require__(
/*! ../shaders/RibbonLineTechnique */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/shaders/RibbonLineTechnique.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (t, e, i, n, r, a, s, o, c, p, u, l, h, v, b, f, d, m, g, C, A, S, y) {
function R(t, e, i, n, r) {
for (var a = 0; a < r; a++) i[n++] = t[e++];
return n;
}
var x = r.getLogger("esri.views.3d.webgl-engine.materials.RibbonLineMaterial"),
P = function (t) {
function e(e, i) {
var n = t.call(this, i) || this;
return n.techniqueConfig = new y.RibbonLineTechniqueConfiguration(), n.params = C.copyParameters(e, V), n.validateParams(), n.params.transparent = n.params.color[3] < 1 || n.params.transparent, n.layout = n.createLayout(), n;
}
return i(e, t), e.prototype.dispose = function () {}, e.prototype.setParameterValues = function (t) {
for (var e in t) if ("cap" !== e) {
if ("join" === e) {
var i = "round" === this.params[e],
n = "round" === t[e];
if (i !== n) {
x.error("join cannot be changed after creation");
continue;
}
}
if ("stipplePattern" === e) {
var r = !!this.params[e],
a = !!t[e];
if (r !== a) {
x.error("stippledness cannot be changed after creation");
continue;
}
}
this.params[e] = t[e];
} else x.error("cap cannot be changed after creation");
this.validateParams(), this.notifyDirty("matChanged");
}, e.prototype.getParameters = function () {
return this.params;
}, e.prototype.getPassParameters = function () {
return this.params;
}, e.prototype.getTechniqueConfig = function (t) {
this.techniqueConfig.output = t;
var e = s.isSome(this.params.stipplePattern);
return this.techniqueConfig.stippleEnabled = e, this.techniqueConfig.stippleIntegerRepeatsEnabled = e && this.params.stippleIntegerRepeats, this.techniqueConfig.stippleOffColorEnabled = e && s.isSome(this.params.stippleOffColor), this.techniqueConfig.slicePlaneEnabled = this.params.slicePlaneEnabled, this.techniqueConfig.roundJoins = "round" === this.params.join, this.techniqueConfig.roundCaps = "round" === this.params.cap, this.techniqueConfig.transparent = this.params.transparent, this.techniqueConfig.polygonOffset = this.params.polygonOffset, this.techniqueConfig.writeDepth = this.params.writeDepth, this.techniqueConfig.vvColor = this.params.vvColorEnabled, this.techniqueConfig.vvOpacity = this.params.vvOpacityEnabled, this.techniqueConfig.vvSize = this.params.vvSizeEnabled, this.techniqueConfig.writeDepth = this.params.writeDepth, this.techniqueConfig.writeDepth = this.params.writeDepth, this.techniqueConfig;
}, e.prototype.intersect = function (t, e, i, n, r, a, s, o, c) {
c ? C.intersectDrapedRenderLineGeometry(t, n, a, this.params.width, s) : this.intersectLineGeometry(t, e, i, n, this.params.width, s);
}, e.prototype.intersectLineGeometry = function (t, e, i, n, r, s) {
if (n.options.selectionMode && !v.isAllHidden(e.componentVisibilities, t.componentOffsets)) {
if (!m.isTranslationMatrix(i)) return void x.error("intersection assumes a translation-only matrix");
var o = t.data,
u = o.getVertexAttr(),
h = u[y.RibbonVertexAttributeConstants.POSITION].data,
b = r;
if (this.params.vvSizeEnabled) {
var f = u[y.RibbonVertexAttributeConstants.SIZEFEATUREATTRIBUTE].data[0];
b *= a.clamp(this.params.vvSizeOffset[0] + f * this.params.vvSizeFactor[0], this.params.vvSizeMinSize[0], this.params.vvSizeMaxSize[0]);
} else u[y.RibbonVertexAttributeConstants.SIZE] && (b *= u[y.RibbonVertexAttributeConstants.SIZE].data[0]);
var d = n.camera,
g = B;
c.vec2.copy(g, n.point);
var C = b * d.pixelRatio,
A = 4 * d.pixelRatio,
S = C / 2 + A;
p.vec3.set(H[0], g[0] - S, g[1] + S, 0), p.vec3.set(H[1], g[0] + S, g[1] + S, 0), p.vec3.set(H[2], g[0] + S, g[1] - S, 0), p.vec3.set(H[3], g[0] - S, g[1] - S, 0);
for (var R = 0; R < 4; R++) d.unprojectPoint(H[R], Y[R]);
l.plane.fromPoints(d.eye, Y[0], Y[1], _), l.plane.fromPoints(d.eye, Y[1], Y[2], W), l.plane.fromPoints(d.eye, Y[2], Y[3], K), l.plane.fromPoints(d.eye, Y[3], Y[0], Q);
for (var P = Number.MAX_VALUE, E = this.params.isClosed ? h.length - 2 : h.length - 5, R = 0; R < E; R += 3) {
U[0] = h[R] + i[12], U[1] = h[R + 1] + i[13], U[2] = h[R + 2] + i[14];
var I = (R + 3) % h.length;
if (w[0] = h[I] + i[12], w[1] = h[I + 1] + i[13], w[2] = h[I + 2] + i[14], !(l.plane.signedDistance(_, U) < 0 && l.plane.signedDistance(_, w) < 0 || l.plane.signedDistance(W, U) < 0 && l.plane.signedDistance(W, w) < 0 || l.plane.signedDistance(K, U) < 0 && l.plane.signedDistance(K, w) < 0 || l.plane.signedDistance(Q, U) < 0 && l.plane.signedDistance(Q, w) < 0)) {
if (d.projectPoint(U, N), d.projectPoint(w, z), N[2] < 0 && z[2] > 0) {
p.vec3.subtract(D, U, w);
var O = d.frustum,
V = -l.plane.signedDistance(O.planes[4], U),
T = V / p.vec3.dot(D, O.planes[4]);
p.vec3.scale(D, D, T), p.vec3.add(U, U, D), d.projectPoint(U, N);
} else if (N[2] > 0 && z[2] < 0) {
p.vec3.subtract(D, w, U);
var O = d.frustum,
V = -l.plane.signedDistance(O.planes[4], w),
T = V / p.vec3.dot(D, O.planes[4]);
p.vec3.scale(D, D, T), p.vec3.add(w, w, D), d.projectPoint(w, z);
} else if (N[2] < 0 && z[2] < 0) continue;
N[2] = 0, z[2] = 0;
var q = l.lineSegment.distance2(l.lineSegment.fromPoints(N, z, Z), g);
q < P && (P = q, p.vec3.copy(j, U), p.vec3.copy(F, w));
}
}
var L = n.rayBeginPoint,
J = n.rayEndPoint;
if (P < S * S) {
var X = Number.MAX_VALUE;
if (l.lineSegment.closestLineSegmentPoint(l.lineSegment.fromPoints(j, F, Z), l.lineSegment.fromPoints(L, J, G), M)) {
p.vec3.subtract(M, M, L);
var k = p.vec3.length(M);
p.vec3.scale(M, M, 1 / k), X = k / p.vec3.distance(L, J);
}
s(X, M);
}
}
}, e.prototype.computeAttachmentOrigin = function (t, e) {
var i = t.data,
n = "getVertexAttr" in i ? i.getVertexAttr() : "vertexAttr" in i ? i.vertexAttr : null;
if (!n) return null;
var r = y.RibbonVertexAttributeConstants.POSITION,
a = n[r];
return b.computeAttachmentOriginLines(a, null, e);
}, e.prototype.createLayout = function () {
var t = h.newLayout().vec3f(y.RibbonVertexAttributeConstants.POSITION).f32(y.RibbonVertexAttributeConstants.SUBDIVISIONFACTOR).vec2f(y.RibbonVertexAttributeConstants.UV0).vec3f(y.RibbonVertexAttributeConstants.AUXPOS1).vec3f(y.RibbonVertexAttributeConstants.AUXPOS2);
return this.params.vvSizeEnabled ? t.f32(y.RibbonVertexAttributeConstants.SIZEFEATUREATTRIBUTE) : t.f32(y.RibbonVertexAttributeConstants.SIZE), this.params.vvColorEnabled ? t.f32(y.RibbonVertexAttributeConstants.COLORFEATUREATTRIBUTE) : t.vec4f(y.RibbonVertexAttributeConstants.COLOR), this.params.vvOpacityEnabled && t.f32(y.RibbonVertexAttributeConstants.OPACITYFEATUREATTRIBUTE), t;
}, e.prototype.createBufferWriter = function () {
return new T(this.layout, this.params);
}, e.prototype.createRenderer = function (t, e) {
return new A(t, e, this, y.ribbonVertexAttributeLocations);
}, e.prototype.getGLMaterials = function () {
return {
color: I,
depthShadowMap: void 0,
normal: void 0,
depth: void 0,
highlight: O
};
}, e.prototype.validateParams = function () {
this.params.width && this.params.width > 1 && (this.params.width = Math.round(this.params.width)), "miter" !== this.params.join && (this.params.miterLimit = 0);
}, e;
}(d.Material),
E = function (t) {
function e(e) {
var i = t.call(this, e) || this;
return i.output = e.output, i.updateParameters(), i;
}
return i(e, t), e.prototype.updateParameters = function () {
this.technique = this.techniqueRep.acquireAndReleaseExisting(S.RibbonLineTechnique, this.material.getTechniqueConfig(this.output), this.technique);
}, e.prototype.beginSlot = function (t) {
if (0 === this.output) {
return t === (this.technique.configuration.writeDepth ? 6 : 9);
}
return 4 === t;
}, e.prototype.getProgram = function () {
return this.technique.program;
}, e.prototype.getPrograms = function () {
return null;
}, e.prototype.bind = function (t, e) {
t.bindProgram(this.technique.program), this.technique.bindPipelineState(t), this.technique.bindPass(t, this.material.getPassParameters(), e);
}, e.prototype.release = function () {}, e.prototype.bindView = function (t) {
this.technique.bindDraw(t);
}, e.prototype.bindInstance = function (t) {
this.technique.bindInstance(t);
}, e.prototype.getDrawMode = function () {
return 5;
}, e;
}(f.GLMaterial),
I = function (t) {
function e(e) {
return t.call(this, n({}, e, {
output: 0
})) || this;
}
return i(e, t), e;
}(E),
O = function (t) {
function e(e) {
return t.call(this, n({}, e, {
output: 4
})) || this;
}
return i(e, t), e;
}(E),
V = n({
width: 0,
color: [1, 1, 1, 1],
join: "miter",
cap: "butt",
miterLimit: 5,
writeDepth: !0,
polygonOffset: !1,
stipplePattern: null,
stippleIntegerRepeats: !1,
stippleOffColor: null,
slicePlaneEnabled: !1,
vvFastUpdate: !1,
transparent: !1,
isClosed: !1
}, g.Default),
T = function () {
function t(t, e) {
if (this.params = e, this.numCapSubdivisions = 0, this.numJoinSubdivisions = 0, this.vertexBufferLayout = t, !e.isClosed) switch (this.params.cap) {
case "butt":
this.numCapSubdivisions = 0;
break;
case "square":
this.numCapSubdivisions = 1;
break;
case "round":
this.numCapSubdivisions = q;
}
switch (this.params.join) {
case "miter":
case "bevel":
this.numJoinSubdivisions = e.stipplePattern ? 1 : 0;
break;
case "round":
this.numJoinSubdivisions = L;
}
}
return t.prototype.allocate = function (t) {
return this.vertexBufferLayout.createBuffer(t);
}, t.prototype.elementCount = function (t) {
var e = 2 * this.numCapSubdivisions + 2,
i = t.indices[y.RibbonVertexAttributeConstants.POSITION].length / 2 + 1,
n = this.params.isClosed,
r = n ? 2 : 2 * e,
a = n ? 0 : 1,
s = n ? i : i - 1;
if (t.vertexAttr[y.RibbonVertexAttributeConstants.SUBDIVISIONS]) for (var o = t.vertexAttr[y.RibbonVertexAttributeConstants.SUBDIVISIONS].data, c = a; c < s; ++c) {
var p = o[c];
r += 4 + 2 * p;
} else {
r += s * (2 * this.numJoinSubdivisions + 4);
}
return r += 2;
}, t.prototype.write = function (t, e, i, n) {
var r = this,
a = J,
s = X,
o = k,
c = e.vertexAttr[y.RibbonVertexAttributeConstants.POSITION].data,
u = e.indices && e.indices[y.RibbonVertexAttributeConstants.POSITION];
u && u.length !== 2 * (c.length / 3 - 1) && console.warn("RibbonLineMaterial does not support indices");
var l = null;
e.vertexAttr[y.RibbonVertexAttributeConstants.SUBDIVISIONS] && (l = e.vertexAttr[y.RibbonVertexAttributeConstants.SUBDIVISIONS].data);
var h = 1,
v = 0;
this.params.vvSizeEnabled ? v = e.vertexAttr[y.RibbonVertexAttributeConstants.SIZEFEATUREATTRIBUTE].data[0] : e.vertexAttr[y.RibbonVertexAttributeConstants.SIZE] && (h = e.vertexAttr[y.RibbonVertexAttributeConstants.SIZE].data[0]);
var b = [1, 1, 1, 1],
f = 0;
this.params.vvColorEnabled ? f = e.vertexAttr[y.RibbonVertexAttributeConstants.COLORFEATUREATTRIBUTE].data[0] : e.vertexAttr[y.RibbonVertexAttributeConstants.COLOR] && (b = e.vertexAttr[y.RibbonVertexAttributeConstants.COLOR].data);
var d = 0;
this.params.vvOpacityEnabled && (d = e.vertexAttr[y.RibbonVertexAttributeConstants.OPACITYFEATUREATTRIBUTE].data[0]);
var m = c.length / 3,
g = t.transformation,
C = new Float32Array(i.buffer),
A = this.vertexBufferLayout.stride / 4,
S = n * A,
x = S,
P = function P(t, e, i, n, a, s) {
C[S++] = e[0], C[S++] = e[1], C[S++] = e[2], C[S++] = n, C[S++] = a, C[S++] = s, C[S++] = t[0], C[S++] = t[1], C[S++] = t[2], C[S++] = i[0], C[S++] = i[1], C[S++] = i[2], r.params.vvSizeEnabled ? C[S++] = v : C[S++] = h, r.params.vvColorEnabled ? C[S++] = f : (C[S++] = b[0], C[S++] = b[1], C[S++] = b[2], C[S++] = b[3]), r.params.vvOpacityEnabled && (C[S++] = d);
};
S += A, p.vec3.set(s, c[0], c[1], c[2]), g && p.vec3.transformMat4(s, s, g);
var E = this.params.isClosed;
if (E) {
var I = c.length - 3;
p.vec3.set(a, c[I], c[I + 1], c[I + 2]), g && p.vec3.transformMat4(a, a, g);
} else {
p.vec3.copy(a, s), p.vec3.set(o, c[3], c[4], c[5]), g && p.vec3.transformMat4(o, o, g);
for (var O = 0; O < this.numCapSubdivisions; ++O) {
var V = 1 - O / this.numCapSubdivisions;
P(a, s, o, V, 1, -4), P(a, s, o, V, 1, 4);
}
P(a, s, o, 0, 0, -4), P(a, s, o, 0, 0, 4), p.vec3.copy(a, s), p.vec3.copy(s, o);
}
for (var T = E ? 0 : 1, q = E ? m : m - 1, O = T; O < q; O++) {
var L = (O + 1) % m * 3;
p.vec3.set(o, c[L + 0], c[L + 1], c[L + 2]), g && p.vec3.transformMat4(o, o, g), P(a, s, o, 0, 1, -1), P(a, s, o, 0, 1, 1);
for (var U = l ? l[O] : this.numJoinSubdivisions, w = 0; w < U; ++w) {
var V = (w + 1) / (U + 1);
P(a, s, o, V, 1, -2), P(a, s, o, V, 1, 2);
}
P(a, s, o, 1, 0, -2), P(a, s, o, 1, 0, 2), p.vec3.copy(a, s), p.vec3.copy(s, o);
}
if (E) {
S = R(C, x + A, C, S, 2 * A);
} else {
P(a, s, o, 0, 1, -5), P(a, s, o, 0, 1, 5);
for (var O = 0; O < this.numCapSubdivisions; ++O) {
var V = (O + 1) / this.numCapSubdivisions;
P(a, s, o, V, 1, -5), P(a, s, o, V, 1, 5);
}
}
R(C, x + A, C, x, A), S = R(C, S - A, C, S, A);
}, t;
}(),
q = 3,
L = 1,
U = u.vec3f64.create(),
w = u.vec3f64.create(),
D = u.vec3f64.create(),
M = u.vec3f64.create(),
B = u.vec3f64.create(),
N = o.createRenderScreenPointArray3(),
z = o.createRenderScreenPointArray3(),
j = u.vec3f64.create(),
F = u.vec3f64.create(),
Z = l.lineSegment.create(),
G = l.lineSegment.create(),
J = u.vec3f64.create(),
X = u.vec3f64.create(),
k = u.vec3f64.create(),
H = [o.createRenderScreenPointArray3(), o.createRenderScreenPointArray3(), o.createRenderScreenPointArray3(), o.createRenderScreenPointArray3()],
Y = [u.vec3f64.create(), u.vec3f64.create(), u.vec3f64.create(), u.vec3f64.create()],
_ = l.plane.create(),
W = l.plane.create(),
K = l.plane.create(),
Q = l.plane.create();
return P;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/materials/VisualVariableMaterialParameters.js":
/*!********************************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/materials/VisualVariableMaterialParameters.js ***!
\********************************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineMaterialsVisualVariableMaterialParametersJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../core/libs/gl-matrix-2/mat3f64 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/mat3f64.js"), __webpack_require__(
/*! ../../../../core/libs/gl-matrix-2/vec3f32 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec3f32.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, v, a, i) {
var o;
return function (e) {
e.Default = {
vvSizeEnabled: !1,
vvSizeMinSize: i.vec3f32.fromValues(1, 1, 1),
vvSizeMaxSize: i.vec3f32.fromValues(100, 100, 100),
vvSizeOffset: i.vec3f32.fromValues(0, 0, 0),
vvSizeFactor: i.vec3f32.fromValues(1, 1, 1),
vvSizeValue: i.vec3f32.fromValues(1, 1, 1),
vvColorEnabled: !1,
vvColorValues: [0, 0, 0, 0, 0, 0, 0, 0],
vvColorColors: [1, 0, 0, 0, 1, 0, 0, 0, 1, 0, 0, 0, 1, 0, 0, 0, 1, 0, 0, 0, 1, 0, 0, 0, 1, 0, 0, 0, 1, 0, 0, 0],
vvOpacityEnabled: !1,
vvOpacityValues: [0, 0, 0, 0, 0, 0, 0, 0],
vvOpacityOpacities: [1, 1, 1, 1, 1, 1, 1, 1],
vvSymbolAnchor: [0, 0, 0],
vvSymbolRotationMatrix: a.mat3f64.create()
};
}(o || (o = {})), o;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/materials/WaterGLMaterial.js":
/*!***************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/materials/WaterGLMaterial.js ***!
\***************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineMaterialsWaterGLMaterialJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../core/tsSupport/extendsHelper */
"./node_modules/arcgis-js-api/core/tsSupport/extendsHelper.js"), __webpack_require__(
/*! ../lib/GLMaterial */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/GLMaterial.js"), __webpack_require__(
/*! ./WaterTechnique */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/materials/WaterTechnique.js"), __webpack_require__(
/*! ./internal/MaterialUtil */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/materials/internal/MaterialUtil.js"), __webpack_require__(
/*! ./internal/waterMaterialUtils */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/materials/internal/waterMaterialUtils.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, t, i, r, a, n, o) {
Object.defineProperty(t, "__esModule", {
value: !0
});
var s = function (e) {
function t(t) {
var i = e.call(this, t) || this;
return i.techniqueConfig = new a.WaterTechniqueConfiguration(), i.updateParameters(), i;
}
return i(t, e), t.prototype.updateParameters = function () {
this.params = n.copyParameters(this.material.getParameters()), this.selectProgram(0);
}, t.prototype.selectProgram = function (e) {
this.techniqueConfig.output = e, this.techniqueConfig.writeDepth = this.params.writeDepth, this.techniqueConfig.receiveShadows = this.params.receiveShadows, this.techniqueConfig.slice = this.params.slicePlaneEnabled, this.techniqueConfig.transparent = this.params.transparent, this.technique = this.techniqueRep.acquireAndReleaseExisting(a.WaterTechnique, this.techniqueConfig, this.technique);
}, t.prototype.beginSlot = function (e) {
var t = 4;
return this.params.transparent && (t = this.params.writeDepth ? 6 : 9), e === t;
}, t.prototype.getProgram = function () {
return this.technique.program;
}, t.prototype.getPrograms = function () {
return null;
}, t.prototype._initTextures = function (e) {
this.texturePaths = [this.params.waveTexture, this.params.perturbationTexture], o.waterTextureRepo.initialize(e, this.texturePaths);
}, t.prototype._setWaveUniforms = function (e) {
e.setUniform1i("texWaveNormal", 0), e.setUniform1i("texWavePerturbation", 1), e.setUniform4f("waveParams", this.params.waveStrength, this.params.waveTextureRepeat, this.params.flowStrength, this.params.flowOffset), e.setUniform2f("waveDirection", this.params.waveDirection[0] * this.params.waveVelocity, this.params.waveDirection[1] * this.params.waveVelocity);
var t = .001 * this.material.animation.time;
e.setUniform1f("timeElapsed", t * this.params.animationSpeed);
}, t.prototype._updateShadowState = function (e) {
e.shadowMappingEnabled !== this.params.receiveShadows && (this.material.setParameterValues({
receiveShadows: e.shadowMappingEnabled
}), this.updateParameters());
}, t.prototype.ensureResources = function (e) {
return o.waterTextureRepo.ready() || o.waterTextureRepo.loading() || this._initTextures(e), o.waterTextureRepo.ready() ? 2 : 1;
}, t.prototype.bind = function (e, t) {
o.waterTextureRepo.ready() && (this._updateShadowState(t), e.bindProgram(this.technique.program), e.setPipelineState(this.technique.pipeline), o.waterTextureRepo.bindRepo(e), this.technique.program.setUniform4fv("waterColor", this.params.color), this._setWaveUniforms(this.technique.program));
}, t.prototype.release = function () {}, t.prototype.bindView = function (e) {
var t = this.technique.program;
t.setUniform3fv("localOrigin", e.origin), n.bindView(e.origin, e.view, t), n.bindCamPos(e.origin, e.viewInvTransp, t), this.params.slicePlaneEnabled && n.bindSlicePlane(e.origin, e.slicePlane, t), e.shadowMappingEnabled && (e.shadowMap.bind(t), e.shadowMap.bindView(t, e.origin));
}, t.prototype.bindInstance = function (e) {
this.technique.program.setUniformMatrix4fv("model", e.transformation);
}, t.prototype.getDrawMode = function () {
return 4;
}, t;
}(r.GLMaterial);
t.WaterGLMaterial = s;
var p = function (e) {
function t() {
return null !== e && e.apply(this, arguments) || this;
}
return i(t, e), t.prototype.updateParameters = function () {
this.params = n.copyParameters(this.material.getParameters()), this.selectProgram(5);
}, t.prototype.bind = function (e) {
e.bindProgram(this.technique.program), e.setPipelineState(this.technique.pipeline), this.technique.program.setUniform4fv("waterColor", this.params.color);
}, t.prototype.bindView = function (e) {
this.technique.program.setUniform3fv("localOrigin", e.origin), n.bindView(e.origin, e.view, this.technique.program);
}, t.prototype.beginSlot = function (e) {
return null == e;
}, t;
}(s);
t.WaterDrapedGLMaterial = p;
var h = function (e) {
function t() {
return null !== e && e.apply(this, arguments) || this;
}
return i(t, e), t.prototype.updateParameters = function () {
this.params = n.copyParameters(this.material.getParameters()), this.selectProgram(2);
}, t.prototype.bind = function (e) {
o.waterTextureRepo.ready() && (e.bindProgram(this.technique.program), e.setPipelineState(this.technique.pipeline), o.waterTextureRepo.bindRepo(e), this._setWaveUniforms(this.technique.program));
}, t.prototype.bindView = function (e) {
this.technique.program.setUniform3fv("localOrigin", e.origin), n.bindView(e.origin, e.view, this.technique.program);
}, t.prototype.beginSlot = function (e) {
return 19 === e;
}, t;
}(s);
t.WaterNormalGLMaterial = h;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/materials/WaterTechnique.js":
/*!**************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/materials/WaterTechnique.js ***!
\**************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineMaterialsWaterTechniqueJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../core/tsSupport/extendsHelper */
"./node_modules/arcgis-js-api/core/tsSupport/extendsHelper.js"), __webpack_require__(
/*! ../../../../core/tsSupport/decorateHelper */
"./node_modules/arcgis-js-api/core/tsSupport/decorateHelper.js"), __webpack_require__(
/*! ../../../../core/tsSupport/assignHelper */
"./node_modules/arcgis-js-api/core/tsSupport/assignHelper.js"), __webpack_require__(
/*! ../core/shaderTechnique/ReloadableShaderModule */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderTechnique/ReloadableShaderModule.js"), __webpack_require__(
/*! ../core/shaderTechnique/ShaderTechnique */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderTechnique/ShaderTechnique.js"), __webpack_require__(
/*! ../core/shaderTechnique/ShaderTechniqueConfiguration */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderTechnique/ShaderTechniqueConfiguration.js"), __webpack_require__(
/*! ../lib/DefaultVertexAttributeLocations */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/DefaultVertexAttributeLocations.js"), __webpack_require__(
/*! ../shaders/WaterSurface.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/shaders/WaterSurface.glsl.js"), __webpack_require__(
/*! ../../../webgl/Program */
"./node_modules/arcgis-js-api/views/webgl/Program.js"), __webpack_require__(
/*! ../../../webgl/renderState */
"./node_modules/arcgis-js-api/views/webgl/renderState.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, t, r, i, a, o, n, u, p, l, s, d) {
Object.defineProperty(t, "__esModule", {
value: !0
});
var c = function (t) {
function i() {
return null !== t && t.apply(this, arguments) || this;
}
return r(i, t), i.prototype.initializeProgram = function (e) {
var t = i.shader.get(),
r = this.configuration,
a = t.build({
output: r.output,
viewingMode: e.viewingMode,
slicePlaneEnabled: r.slice,
sliceHighlightDisabled: !1,
receiveShadows: r.receiveShadows,
usePBR: !1,
usePBRforWater: !0,
useCustomDTRExponentForWater: !0
});
return new s(e.rctx, a.generateSource("vertex"), a.generateSource("fragment"), p.Default3D);
}, i.prototype.initializePipeline = function () {
var e = this.configuration;
return 2 === e.output ? d.makePipelineState({
depthTest: {
func: 513
},
depthWrite: e.writeDepth && d.defaultDepthWriteParams,
colorWrite: d.defaultColorWriteParams
}) : d.makePipelineState({
blending: e.transparent && d.separateBlendingParams(770, 1, 771, 771),
depthTest: {
func: 513
},
depthWrite: e.writeDepth && d.defaultDepthWriteParams,
colorWrite: d.defaultColorWriteParams
});
}, i.prototype.bindPipelineState = function (e) {
e.setPipelineState(this.pipeline);
}, i.shader = new o.ReloadableShaderModule(l, "../shaders/WaterSurface.glsl", e), i;
}(n.ShaderTechnique);
t.WaterTechnique = c;
var h = function (e) {
function t() {
var t = null !== e && e.apply(this, arguments) || this;
return t.output = 0, t.receiveShadows = !1, t.slice = !1, t.transparent = !1, t.writeDepth = !1, t;
}
return r(t, e), i([u.parameter({
count: 6
})], t.prototype, "output", void 0), i([u.parameter()], t.prototype, "receiveShadows", void 0), i([u.parameter()], t.prototype, "slice", void 0), i([u.parameter()], t.prototype, "transparent", void 0), i([u.parameter()], t.prototype, "writeDepth", void 0), t;
}(u.ShaderTechniqueConfiguration);
t.WaterTechniqueConfiguration = h;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/materials/internal/DefaultBufferWriter.js":
/*!****************************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/materials/internal/DefaultBufferWriter.js ***!
\****************************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineMaterialsInternalDefaultBufferWriterJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../support/buffer/InterleavedLayout */
"./node_modules/arcgis-js-api/views/3d/support/buffer/InterleavedLayout.js"), __webpack_require__(
/*! ../../lib/Util */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/Util.js"), __webpack_require__(
/*! ./bufferWriterUtils */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/materials/internal/bufferWriterUtils.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (t, e, r, n, o) {
Object.defineProperty(e, "__esModule", {
value: !0
}), e.PositionLayout = r.newLayout().vec3f(n.VertexAttrConstants.POSITION), e.PositionUVLayout = r.newLayout().vec3f(n.VertexAttrConstants.POSITION).vec2f(n.VertexAttrConstants.UV0), e.PositionColorLayout = r.newLayout().vec3f(n.VertexAttrConstants.POSITION).vec4u8(n.VertexAttrConstants.COLOR);
var u = function () {
function t(t) {
this.vertexBufferLayout = t;
}
return t.prototype.allocate = function (t) {
return this.vertexBufferLayout.createBuffer(t);
}, t.prototype.elementCount = function (t) {
return t.indices[n.VertexAttrConstants.POSITION].length;
}, t.prototype.write = function (t, e, r, n) {
o.writeDefaultAttributes(e, this.vertexBufferLayout, t.transformation, t.invTranspTransformation, r, n);
}, t;
}();
e.DefaultBufferWriter = u;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/materials/internal/MaterialUtil.js":
/*!*********************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/materials/internal/MaterialUtil.js ***!
\*********************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineMaterialsInternalMaterialUtilJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../core/tsSupport/assignHelper */
"./node_modules/arcgis-js-api/core/tsSupport/assignHelper.js"), __webpack_require__(
/*! ../../../../../core/mathUtils */
"./node_modules/arcgis-js-api/core/mathUtils.js"), __webpack_require__(
/*! ../../../../../core/maybe */
"./node_modules/arcgis-js-api/core/maybe.js"), __webpack_require__(
/*! ../../../../../core/libs/gl-matrix-2/mat4 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/mat4.js"), __webpack_require__(
/*! ../../../../../core/libs/gl-matrix-2/mat4f32 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/mat4f32.js"), __webpack_require__(
/*! ../../../../../core/libs/gl-matrix-2/mat4f64 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/mat4f64.js"), __webpack_require__(
/*! ../../../../../core/libs/gl-matrix-2/vec3 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec3.js"), __webpack_require__(
/*! ../../../../../core/libs/gl-matrix-2/vec3f64 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec3f64.js"), __webpack_require__(
/*! ../../../../../core/libs/gl-matrix-2/vec4 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec4.js"), __webpack_require__(
/*! ../../../../../geometry/support/aaBoundingBox */
"./node_modules/arcgis-js-api/geometry/support/aaBoundingBox.js"), __webpack_require__(
/*! ../../lib/ComponentUtils */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/ComponentUtils.js"), __webpack_require__(
/*! ../../lib/doublePrecisionUtils */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/doublePrecisionUtils.js"), __webpack_require__(
/*! ../../lib/screenSizePerspectiveUtils */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/screenSizePerspectiveUtils.js"), __webpack_require__(
/*! ../../lib/Util */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/Util.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, t, r, i, n, a, o, c, s, f, l, u, v, m, d, g) {
function p(e, t, r, i, n, a, o) {
var c = t && t.componentVisibilities,
s = r.tolerance;
if (e.componentCount > 1) b(e, c, i, n, s, a, o);else if (!c || v.getVisibility(c, 0)) if (e.boundingInfo) g.assert("triangle" === e.data.primitiveType), h(e.boundingInfo, i, n, s, a, o);else {
var f = e.getIndices(X.POSITION),
l = e.getAttribute(X.POSITION),
u = f.length / 3;
x(i, n, 0, u, f, l, void 0, a, o);
}
}
function h(e, t, r, i, a, o) {
var c = B(t, r, Z);
if (u.setMin(k, e.getBBMin()), u.setMax(k, e.getBBMax()), n.isSome(a) && a.applyToAABB(k), S(k, t, c, i)) {
var s = e.getPrimitiveIndices(),
f = e.getIndices(),
l = e.getPosition(),
v = s ? s.length : f.length / 3;
if (v > ne) {
var m = e.getChildren();
if (void 0 !== m) {
for (var d = 0; d < 8; ++d) void 0 !== m[d] && h(m[d], t, r, i, a, o);
return;
}
}
x(t, r, 0, v, f, l, s, a, o);
}
}
function b(e, t, r, i, a, o, c) {
var s = B(r, i, Z),
f = e.componentCount,
l = e.componentOffsets,
m = e.getIndices(X.POSITION),
d = e.getAttribute(X.POSITION),
g = e.boundingInfo;
if (!g || (u.setMin(k, g.getBBMin()), u.setMax(k, g.getBBMax()), n.isSome(o) && o.applyToAABB(k), S(k, r, s, a))) for (var p = 0; p < f; p++) if (!t || v.getVisibility(t, p)) {
if (e.getComponentAABB) {
var h = e.getComponentAABB(p, k);
if (n.isSome(o) && o.applyToAABB(h), !S(h, r, s, a)) continue;
}
var b = l[p] / 3,
M = l[p + 1] / 3;
x(r, i, b, M, m, d, void 0, o, c);
}
}
function x(e, t, r, i, a, o, c, s, f) {
var l, u, v;
if (c) return M(e, t, r, i, a, o, c, s, f);
for (var m = o.data, d = o.offsetIdx, g = o.strideIdx, p = e[0], h = e[1], b = e[2], x = t[0], B = t[1], S = t[2], A = x - p, I = B - h, T = S - b, y = r, O = 3 * r; y < i; ++y) {
var U = d + g * a[O++],
L = m[U++],
V = m[U++],
w = m[U];
U = d + g * a[O++];
var D = m[U++],
W = m[U++],
R = m[U];
U = d + g * a[O++];
var E = m[U++],
N = m[U++],
C = m[U];
n.isSome(s) && (l = s.applyToVertex(L, V, w), L = l[0], V = l[1], w = l[2], u = s.applyToVertex(D, W, R), D = u[0], W = u[1], R = u[2], v = s.applyToVertex(E, N, C), E = v[0], N = v[1], C = v[2]);
var z = D - L,
F = W - V,
H = R - w,
q = E - L,
_ = N - V,
j = C - w,
G = I * j - _ * T,
Y = T * q - j * A,
k = A * _ - q * I,
X = z * G + F * Y + H * k;
if (!(Math.abs(X) <= J)) {
var Z = p - L,
Q = h - V,
$ = b - w,
ee = Z * G + Q * Y + $ * k;
if (X > 0) {
if (ee < 0 || ee > X) continue;
} else if (ee > 0 || ee < X) continue;
var te = Q * H - F * $,
re = $ * z - H * Z,
ie = Z * F - z * Q,
ne = A * te + I * re + T * ie;
if (X > 0) {
if (ne < 0 || ee + ne > X) continue;
} else if (ne > 0 || ee + ne < X) continue;
var ae = (q * te + _ * re + j * ie) / X;
if (ae >= 0) {
f(ae, P(z, F, H, q, _, j, K), y);
}
}
}
}
function M(e, t, r, i, a, o, c, s, f) {
for (var l, u, v, m = o.data, d = o.offsetIdx, g = o.strideIdx, p = e[0], h = e[1], b = e[2], x = t[0], M = t[1], B = t[2], S = x - p, A = M - h, I = B - b, T = r; T < i; ++T) {
var y = c[T],
O = 3 * y,
U = d + g * a[O++],
L = m[U++],
V = m[U++],
w = m[U];
U = d + g * a[O++];
var D = m[U++],
W = m[U++],
R = m[U];
U = d + g * a[O];
var E = m[U++],
N = m[U++],
C = m[U];
n.isSome(s) && (l = s.applyToVertex(L, V, w), L = l[0], V = l[1], w = l[2], u = s.applyToVertex(D, W, R), D = u[0], W = u[1], R = u[2], v = s.applyToVertex(E, N, C), E = v[0], N = v[1], C = v[2]);
var z = D - L,
F = W - V,
H = R - w,
q = E - L,
_ = N - V,
j = C - w,
G = A * j - _ * I,
Y = I * q - j * S,
k = S * _ - q * A,
X = z * G + F * Y + H * k;
if (!(Math.abs(X) <= J)) {
var Z = p - L,
Q = h - V,
$ = b - w,
ee = Z * G + Q * Y + $ * k;
if (X > 0) {
if (ee < 0 || ee > X) continue;
} else if (ee > 0 || ee < X) continue;
var te = Q * H - F * $,
re = $ * z - H * Z,
ie = Z * F - z * Q,
ne = S * te + A * re + I * ie;
if (X > 0) {
if (ne < 0 || ee + ne > X) continue;
} else if (ne > 0 || ee + ne < X) continue;
var ae = (q * te + _ * re + j * ie) / X;
if (ae >= 0) {
f(ae, P(z, F, H, q, _, j, K), y);
}
}
}
}
function P(e, t, r, i, n, a, o) {
return s.vec3.set(Q, e, t, r), s.vec3.set($, i, n, a), s.vec3.cross(o, Q, $), s.vec3.normalize(o, o), o;
}
function B(e, t, r) {
return s.vec3.set(r, 1 / (t[0] - e[0]), 1 / (t[1] - e[1]), 1 / (t[2] - e[2]));
}
function S(e, t, r, i) {
return A(e, t, r, i, 1 / 0);
}
function A(e, t, r, i, n) {
var a = (e[0] - i - t[0]) * r[0],
o = (e[3] + i - t[0]) * r[0],
c = Math.min(a, o),
s = Math.max(a, o),
f = (e[1] - i - t[1]) * r[1],
l = (e[4] + i - t[1]) * r[1];
if ((s = Math.min(s, Math.max(f, l))) < 0) return !1;
if ((c = Math.max(c, Math.min(f, l))) > s) return !1;
var u = (e[2] - i - t[2]) * r[2],
v = (e[5] + i - t[2]) * r[2];
return !((s = Math.min(s, Math.max(u, v))) < 0) && !((c = Math.max(c, Math.min(u, v))) > s) && c < n;
}
function I(e, t, r) {
return l.vec4.set(r, e[0] - t[0], e[1] - t[1], e[2] - t[2], 1);
}
function T(e, t, r, i) {
return a.mat4.translate(Y, r, t), r = Y, l.vec4.transformMat4(i, e, r);
}
function y(e, t, r, i) {
return i[0] = e[0] + r[0], i[1] = e[1] + r[1], i[2] = e[2] + r[2], i[3] = e[3], l.vec4.transformMat4(i, i, t);
}
function O(e, t) {
return l.vec4.scale(t, e, 1 / Math.abs(e[3]));
}
function U(e, t, r, i) {
return d.scale(e, r, t, i);
}
function L(e, t, r, n, a) {
var o = (r.screenLength || 0) * e.pixelRatio;
a && (o = U(o, t, n, a));
var c = o * Math.tan(.5 * e.fovY) / (.5 * e.fullHeight);
return i.clamp(c * t, r.minWorldLength || 0, null != r.maxWorldLength ? r.maxWorldLength : 1 / 0);
}
function V(e, t, r) {
if (void 0 !== e) return t.acquire(e, r);
}
function w(e, t) {
void 0 !== e && t.release(e);
}
function D(e, t, r) {
a.mat4.translate(ee, t, e), r.setUniform3fv("localOrigin", e), r.setUniformMatrix4fv("view", ee);
}
function W(e, t, r) {
r.setUniform3f("camPos", t[3] - e[0], t[7] - e[1], t[11] - e[2]);
}
function R(e, t) {
m.encodeDoubleArraySplit(e, te, re, 3), t.setUniform3fv("viewOriginHi", te), t.setUniform3fv("viewOriginLo", re);
}
function E(e, t, r) {
s.vec3.subtract(ie, t.origin, e), r.setUniform3fv("slicePlaneOrigin", ie), r.setUniform3fv("slicePlaneBasis1", t.basis1), r.setUniform3fv("slicePlaneBasis2", t.basis2);
}
function N(e, t, r) {
if (e) {
var i = z(e, t.fovY, t.viewport[3]),
n = t.pixelRatio || 1;
r.setUniform4f("verticalOffset", i.screenLength * n, i.perDistance, i.minWorldLength, i.maxWorldLength);
}
}
function C(e, t, r) {
e.bindTexture(t.highlightDepthTexture, 5), r.setUniform1i("depthTex", 5), r.setUniform4f("highlightViewportPixelSz", 0, 0, 1 / t.viewport[2], 1 / t.viewport[3]);
}
function z(e, t, r, i) {
return void 0 === i && (i = ae), i.screenLength = e.screenLength, i.perDistance = Math.tan(.5 * t) / (.5 * r), i.minWorldLength = e.minWorldLength, i.maxWorldLength = e.maxWorldLength, i;
}
function F(e, t, r) {
if (void 0 === r && (r = "screenSizePerspectiveAlignment"), e) {
var i = e.parameters,
n = e.paddingPixelsOverride;
t.setUniform4f(r, i.divisor, i.offset, i.minPixelSize, n);
}
}
function H(e, t) {
var r = t ? H(t) : {};
for (var i in e) {
var n = e[i];
n && n.forEach && (n = j(n)), null == n && i in r || (r[i] = n);
}
return r;
}
function q(e, t) {
var r = !1;
for (var i in t) {
var n = t[i];
void 0 !== n && (r = !0, Array.isArray(n) ? e[i] = n.slice() : e[i] = n);
}
return r;
}
function _(e, t, r, n, a) {
if (t.options.selectionMode) {
for (var o = e.getAttribute(X.POSITION).data, c = e.getAttribute(X.SIZE), s = c && c.data[0], f = r[0], l = r[1], u = s + n, v = (u / 2 + 4) * e.pixelRatio, m = Number.MAX_VALUE, d = 0; d < o.length - 5; d += 3) {
var g = o[d],
p = o[d + 1],
h = o[d + 3],
b = o[d + 4],
x = f - g,
M = l - p,
P = h - g,
B = b - p,
S = P * x + B * M,
A = P * P + B * B,
I = i.clamp(S / A, 0, 1),
T = P * I - x,
y = B * I - M,
O = T * T + y * y;
O < m && (m = O);
}
m < v * v && a();
}
}
function j(e) {
var t = [];
return e.forEach(function (e) {
return t.push(e);
}), t;
}
function G(e, i) {
return r({
usePBR: e
}, i ? t.defaultPBRTreeMaterialParameters : t.defaultPBRMaterialParameters);
}
Object.defineProperty(t, "__esModule", {
value: !0
});
var Y = c.mat4f64.create(),
k = u.create(),
X = g.VertexAttrConstants;
t.intersectTriangleGeometry = p;
var Z = f.vec3f64.create(),
J = Math.pow(2, -52),
K = f.vec3f64.create();
t.intersectTriangles = x;
var Q = f.vec3f64.create(),
$ = f.vec3f64.create();
t.computeNormal = P, t.computeInvDir = B, t.intersectAabbInvDir = S, t.intersectAabbInvDirBefore = A, t.transformToWorld = I, t.transformToView = T, t.transformToProjection = y, t.transformToNDC = O, t.applyScreenSizePerspectiveScale = U, t.verticalOffsetAtDistance = L, t.acquireIfNotUndefined = V, t.releaseIfNotUndefined = w;
var ee = o.mat4f32.create();
t.bindView = D, t.bindCamPos = W;
var te = f.vec3f64.create(),
re = f.vec3f64.create();
t.bindViewOriginDouble = R;
var ie = f.vec3f64.create();
t.bindSlicePlane = E, t.bindVerticalOffset = N, t.bindHighlightRendering = C, t.bindScreenSizePerspective = F, t.copyParameters = H, t.updateParameters = q;
!function (e) {
function t(e, t) {
for (var r = [], i = 0; i < 2; i++) for (var a = 0; a < 2; a++) {
var o = n({
shadowMappingEnabled: 1 === i,
ssaoEnabled: 1 === a
}),
c = n({
shadowMappingEnabled: 1 === i,
ssaoEnabled: 1 === a && e.receiveSSAO
});
r[o] = r[c] || t({
receiveShadows: 1 === i,
receiveSSAO: 1 === a && e.receiveSSAO
});
}
return {
programs: r.filter(function (e) {
return null != e;
}),
byParameter: r
};
}
function r(e, t) {
return e.byParameter[n(t)];
}
function i(e) {
return e.programs;
}
function n(e) {
return (e.shadowMappingEnabled ? 1 : 0) | (e.ssaoEnabled ? 2 : 0);
}
e.create = t, e.lookup = r, e.programs = i;
}(t.BindParametersMap || (t.BindParametersMap = {})), t.intersectDrapedRenderLineGeometry = _, t.colorMixModes = {
multiply: 1,
ignore: 2,
replace: 3,
tint: 4
};
var ne = 1e3,
ae = {
screenLength: 0,
perDistance: 0,
minWorldLength: 0,
maxWorldLength: 0
};
t.defaultPBRMaterialParameters = {
roughnessFactor: .6,
metallicFactor: 0,
reflectanceFactor: .2
}, t.defaultPBRTreeMaterialParameters = {
roughnessFactor: 1,
metallicFactor: 0,
reflectanceFactor: .2
}, t.getDefaultPBRMaterialParameters = G;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/materials/internal/bufferWriterUtils.js":
/*!**************************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/materials/internal/bufferWriterUtils.js ***!
\**************************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineMaterialsInternalBufferWriterUtilsJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../support/buffer/BufferView */
"./node_modules/arcgis-js-api/views/3d/support/buffer/BufferView.js"), __webpack_require__(
/*! ../../lib/Util */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/Util.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, r, f, t) {
function a(e, r, f, t, a) {
var i = f.typedBuffer,
s = f.typedBufferStride,
o = e.length;
if (t *= s, null == a || 1 === a) for (var u = 0; u < o; ++u) {
var v = 2 * e[u];
i[t] = r[v], i[t + 1] = r[v + 1], t += s;
} else for (var u = 0; u < o; ++u) for (var v = 2 * e[u], n = 0; n < a; ++n) i[t] = r[v], i[t + 1] = r[v + 1], t += s;
}
function i(e, r, f, t, a) {
var i = f.typedBuffer,
s = f.typedBufferStride,
o = e.length;
if (t *= s, null == a || 1 === a) for (var u = 0; u < o; ++u) {
var v = 3 * e[u];
i[t] = r[v], i[t + 1] = r[v + 1], i[t + 2] = r[v + 2], t += s;
} else for (var u = 0; u < o; ++u) for (var v = 3 * e[u], n = 0; n < a; ++n) i[t] = r[v], i[t + 1] = r[v + 1], i[t + 2] = r[v + 2], t += s;
}
function s(e, r, f, t, a) {
var i = f.typedBuffer,
s = f.typedBufferStride,
o = e.length;
if (t *= s, null == a || 1 === a) for (var u = 0; u < o; ++u) {
var v = 4 * e[u];
i[t] = r[v], i[t + 1] = r[v + 1], i[t + 2] = r[v + 2], i[t + 3] = r[v + 3], t += s;
} else for (var u = 0; u < o; ++u) for (var v = 4 * e[u], n = 0; n < a; ++n) i[t] = r[v], i[t + 1] = r[v + 1], i[t + 2] = r[v + 2], i[t + 3] = r[v + 3], t += s;
}
function o(e, r, f, t) {
var a = f.typedBuffer,
i = f.typedBufferStride,
s = e.length;
t *= i;
for (var o = 0; o < s; ++o) {
for (var u = 9 * e[o], v = 0; v < 9; ++v) a[t + v] = r[u + v];
t += i;
}
}
function u(e, r, f, t) {
var a = f.typedBuffer,
i = f.typedBufferStride,
s = e.length;
t *= i;
for (var o = 0; o < s; ++o) {
for (var u = 16 * e[o], v = 0; v < 16; ++v) a[t + v] = r[u + v];
t += i;
}
}
function v(e, r, f, t, a, s) {
if (f) {
var o = f,
u = t.typedBuffer,
v = t.typedBufferStride,
n = e.length;
if (a *= v, null == s || 1 === s) for (var l = 0; l < n; ++l) {
var d = 3 * e[l],
B = r[d],
c = r[d + 1],
V = r[d + 2];
u[a] = o[0] * B + o[4] * c + o[8] * V + o[12], u[a + 1] = o[1] * B + o[5] * c + o[9] * V + o[13], u[a + 2] = o[2] * B + o[6] * c + o[10] * V + o[14], a += v;
} else for (var l = 0; l < n; ++l) for (var d = 3 * e[l], B = r[d], c = r[d + 1], V = r[d + 2], p = o[0] * B + o[4] * c + o[8] * V + o[12], w = o[1] * B + o[5] * c + o[9] * V + o[13], y = o[2] * B + o[6] * c + o[10] * V + o[14], g = 0; g < s; ++g) u[a] = p, u[a + 1] = w, u[a + 2] = y, a += v;
} else i(e, r, t, a, s);
}
function n(e, r, f, t, a, s) {
if (f) {
var o = f,
u = t.typedBuffer,
v = t.typedBufferStride,
n = e.length;
if (a *= v, null == s || 1 === s) for (var l = 0; l < n; ++l) {
var d = 3 * e[l],
B = r[d],
c = r[d + 1],
V = r[d + 2];
u[a] = o[0] * B + o[4] * c + o[8] * V, u[a + 1] = o[1] * B + o[5] * c + o[9] * V, u[a + 2] = o[2] * B + o[6] * c + o[10] * V, a += v;
} else for (var l = 0; l < n; ++l) for (var d = 3 * e[l], B = r[d], c = r[d + 1], V = r[d + 2], p = o[0] * B + o[4] * c + o[8] * V, w = o[1] * B + o[5] * c + o[9] * V, y = o[2] * B + o[6] * c + o[10] * V, g = 0; g < s; ++g) u[a] = p, u[a + 1] = w, u[a + 2] = y, a += v;
} else i(e, r, t, a, s);
}
function l(e, r, f, t, a, i) {
var s = t.typedBuffer,
o = t.typedBufferStride,
u = e.length;
if (a *= o, null == i || 1 === i) {
if (4 === f) for (var v = 0; v < u; ++v) {
var n = 4 * e[v];
s[a] = r[n], s[a + 1] = r[n + 1], s[a + 2] = r[n + 2], s[a + 3] = r[n + 3], a += o;
} else if (3 === f) for (var v = 0; v < u; ++v) {
var n = 3 * e[v];
s[a] = r[n], s[a + 1] = r[n + 1], s[a + 2] = r[n + 2], s[a + 3] = 255, a += o;
}
} else if (4 === f) for (var v = 0; v < u; ++v) for (var n = 4 * e[v], l = 0; l < i; ++l) s[a] = r[n], s[a + 1] = r[n + 1], s[a + 2] = r[n + 2], s[a + 3] = r[n + 3], a += o;else if (3 === f) for (var v = 0; v < u; ++v) for (var n = 3 * e[v], l = 0; l < i; ++l) s[a] = r[n], s[a + 1] = r[n + 1], s[a + 2] = r[n + 2], s[a + 3] = 255, a += o;
}
function d(e, r, f, t, a, i, s) {
var o = a.typedBuffer,
u = a.typedBufferStride,
v = e.length;
if (i *= u, null == s || 1 === s) {
if (4 === f) for (var n = 0; n < v; ++n) {
var l = 4 * e[n];
o[i] = r[l] * t[0], o[i + 1] = r[l + 1] * t[1], o[i + 2] = r[l + 2] * t[2], o[i + 3] = r[l + 3] * t[3], i += u;
} else if (3 === f) for (var d = 255 * t[3], n = 0; n < v; ++n) {
var l = 3 * e[n];
o[i] = r[l] * t[0], o[i + 1] = r[l + 1] * t[1], o[i + 2] = r[l + 2] * t[2], o[i + 3] = d, i += u;
}
} else if (4 === f) for (var n = 0; n < v; ++n) for (var l = 4 * e[n], B = 0; B < s; ++B) o[i] = r[l] * t[0], o[i + 1] = r[l + 1] * t[1], o[i + 2] = r[l + 2] * t[2], o[i + 3] = r[l + 3] * t[3], i += u;else if (3 === f) for (var d = 255 * t[3], n = 0; n < v; ++n) for (var l = 3 * e[n], B = 0; B < s; ++B) o[i] = r[l] * t[0], o[i + 1] = r[l + 1] * t[1], o[i + 2] = r[l + 2] * t[2], o[i + 3] = d, i += u;
}
function B(e, r, i, o, u, d) {
for (var B = 0, c = r.fieldNames; B < c.length; B++) {
var V = c[B],
p = e.vertexAttr[V],
w = e.indices[V];
if (p && w) switch (V) {
case t.VertexAttrConstants.POSITION:
t.assert(3 === p.size);
var y = u.getField(V, f.BufferViewVec3f);
y && v(w, p.data, i, y, d);
break;
case t.VertexAttrConstants.NORMAL:
t.assert(3 === p.size);
var g = u.getField(V, f.BufferViewVec3f);
g && n(w, p.data, o, g, d);
break;
case t.VertexAttrConstants.UV0:
t.assert(2 === p.size);
var h = u.getField(V, f.BufferViewVec2f);
h && a(w, p.data, h, d);
break;
case t.VertexAttrConstants.REGION:
t.assert(4 === p.size);
var z = u.getField(V, f.BufferViewVec4u16);
z && s(w, p.data, z, d);
break;
case t.VertexAttrConstants.COLOR:
t.assert(3 === p.size || 4 === p.size);
var A = u.getField(V, f.BufferViewVec4u8);
A && l(w, p.data, p.size, A, d);
break;
case t.VertexAttrConstants.SYMBOLCOLOR:
t.assert(3 === p.size || 4 === p.size);
var C = u.getField(V, f.BufferViewVec4u8);
C && l(w, p.data, p.size, C, d);
break;
case t.VertexAttrConstants.TANGENT:
t.assert(4 === p.size);
var S = u.getField(V, f.BufferViewVec4f);
S && s(w, p.data, S, d);
}
}
}
Object.defineProperty(r, "__esModule", {
value: !0
}), r.writeBufferVec2 = a, r.writeBufferVec3 = i, r.writeBufferVec4 = s, r.writeBufferMat3f = o, r.writeBufferMat4f = u, r.writePosition = v, r.writeNormal = n, r.writeColor = l, r.writeMultipliedColor = d, r.writeDefaultAttributes = B;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/materials/internal/waterMaterialUtils.js":
/*!***************************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/materials/internal/waterMaterialUtils.js ***!
\***************************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineMaterialsInternalWaterMaterialUtilsJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../core/tsSupport/generatorHelper */
"./node_modules/arcgis-js-api/core/tsSupport/generatorHelper.js"), __webpack_require__(
/*! ../../../../../core/tsSupport/awaiterHelper */
"./node_modules/arcgis-js-api/core/tsSupport/awaiterHelper.js"), __webpack_require__(
/*! ../../../../../core/Logger */
"./node_modules/arcgis-js-api/core/Logger.js"), __webpack_require__(
/*! ../../../../../core/libs/gl-matrix-2/vec2f64 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec2f64.js"), __webpack_require__(
/*! ../../../support/imageUtils */
"./node_modules/arcgis-js-api/views/3d/support/imageUtils.js"), __webpack_require__(
/*! ../../../../webgl/Texture */
"./node_modules/arcgis-js-api/views/webgl/Texture.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, t, r, a, i, n, o, l) {
Object.defineProperty(t, "__esModule", {
value: !0
});
var u = i.getLogger("esri.views.3d.webgl-engine.materials.internal.waterMaterialUtils");
t.waterParameterDefaultsLocal = {
waveTexture: e.toUrl("../../../../../images/materials/water/normals.jpg"),
perturbationTexture: e.toUrl("../../../../../images/materials/water/perturbation.jpg"),
waveStrength: .06,
waveTextureRepeat: 32,
waveDirection: n.vec2f64.fromValues(1, 0),
waveVelocity: .05,
flowStrength: .015,
flowOffset: -.5,
animationSpeed: .35,
color: [0, .35686, .4, 1],
transparent: !1,
writeDepth: !0,
slicePlaneEnabled: !1,
isDraped: !1,
receiveShadows: !0
}, t.wavePresets = {
"calm-small": {
waveStrength: .005,
perturbationStrength: .02,
textureRepeat: 12,
waveVelocity: .01
},
"rippled-small": {
waveStrength: .02,
perturbationStrength: .09,
textureRepeat: 32,
waveVelocity: .07
},
"slight-small": {
waveStrength: .05,
perturbationStrength: .07,
textureRepeat: 28,
waveVelocity: .1
},
"moderate-small": {
waveStrength: .075,
perturbationStrength: .07,
textureRepeat: 24,
waveVelocity: .1
},
"calm-medium": {
waveStrength: .003125,
perturbationStrength: .01,
textureRepeat: 8,
waveVelocity: .02
},
"rippled-medium": {
waveStrength: .035,
perturbationStrength: .015,
textureRepeat: 12,
waveVelocity: .07
},
"slight-medium": {
waveStrength: .06,
perturbationStrength: .015,
textureRepeat: 8,
waveVelocity: .12
},
"moderate-medium": {
waveStrength: .09,
perturbationStrength: .03,
textureRepeat: 4,
waveVelocity: .12
},
"calm-large": {
waveStrength: .01,
perturbationStrength: 0,
textureRepeat: 4,
waveVelocity: .05
},
"rippled-large": {
waveStrength: .025,
perturbationStrength: .01,
textureRepeat: 8,
waveVelocity: .11
},
"slight-large": {
waveStrength: .06,
perturbationStrength: .02,
textureRepeat: 3,
waveVelocity: .13
},
"moderate-large": {
waveStrength: .14,
perturbationStrength: .03,
textureRepeat: 2,
waveVelocity: .15
}
};
var p = function () {
function e() {
this.loadingCount = 0, this.data = [], this.loadingState = 0;
}
return e.prototype.loadTexture = function (e, t, i) {
return a(this, void 0, void 0, function () {
var a, n;
return r(this, function (r) {
switch (r.label) {
case 0:
this.loadingCount++, r.label = 1;
case 1:
return r.trys.push([1, 3,, 4]), [4, o.requestImage(i)];
case 2:
return a = r.sent(), this.data[t] = new l(e, this.getTextureProps(a.width, a.height, !0), a), [3, 4];
case 3:
return n = r.sent(), u.warn("Failed to load texture for water material.", n), this.data[t] = new l(e, this.getTextureProps(1, 1, !0)), [3, 4];
case 4:
return this.loadingCount--, [2];
}
});
});
}, e.prototype.getTextureProps = function (e, t, r) {
return void 0 === r && (r = !1), {
target: 3553,
pixelFormat: 6408,
dataType: 5121,
wrapMode: 10497,
samplingMode: 9987,
hasMipmap: r,
maxAnisotropy: 8,
width: e,
height: t
};
}, e.prototype.ready = function () {
return 2 === this.loadingState || 1 === this.loadingState && 0 === this.loadingCount && (this.loadingState = 2, !0);
}, e.prototype.loading = function () {
return 1 === this.loadingState;
}, e.prototype.initialize = function (e, t) {
for (var r = 0; r < t.length; r++) this.loadTexture(e, r, t[r]);
this.loadingState = 1;
}, e.prototype.bindRepo = function (e) {
for (var t = 0; t < this.data.length; t++) e.bindTexture(this.data[t], t);
}, e;
}();
t.waterTextureRepo = new p();
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/materials/lineStippleUtils.js":
/*!****************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/materials/lineStippleUtils.js ***!
\****************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineMaterialsLineStippleUtilsJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../core/maybe */
"./node_modules/arcgis-js-api/core/maybe.js"), __webpack_require__(
/*! ../../../webgl */
"./node_modules/arcgis-js-api/views/webgl.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, t, r, n) {
function i(e) {
return e.slice();
}
function o(e) {
return [e, e];
}
Object.defineProperty(t, "__esModule", {
value: !0
});
var u = function () {
function e() {
this.cache = new Map();
}
return e.prototype.dispose = function () {
this.cache.forEach(function (e) {
r.isSome(e.texture) && (e.texture.dispose(), e.texture = null);
}), this.cache.clear();
}, e.prototype.acquire = function (e) {
if (r.isNone(e)) return null;
var t = this.patternId(e),
i = this.cache.get(t);
if (i) return i.refCount++, i.bind;
var o = this.patternToTextureData(e, 2),
u = o.length / 2,
a = {
refCount: 1,
texture: null,
bind: function bind(e, t) {
return r.isNone(a.texture) && (a.texture = new n.Texture(e, {
width: o.length,
height: 1,
internalFormat: 6406,
pixelFormat: 6406,
dataType: 5121,
wrapMode: 33071
}, o)), e.bindTexture(a.texture, t), u;
}
};
return this.cache.set(t, a), a.bind;
}, e.prototype.release = function (e) {
if (!r.isNone(e)) {
var t = this.patternId(e),
n = this.cache.get(t);
n && 0 === --n.refCount && (r.isSome(n.texture) && n.texture.dispose(), this.cache["delete"](t));
}
}, e.prototype.swap = function (e, t) {
var r = this.acquire(t);
return this.release(e), r;
}, e.prototype.bind = function (e, t, n, i, o) {
var u = r.isSome(i) ? i(e, o) * t.pixelRatio : 1;
n.setUniform1i("stipplePatternTexture", o), n.setUniform1f("stipplePatternPixelSizeInv", 1 / u);
}, e.prototype.patternId = function (e) {
return e.join(",");
}, e.prototype.patternToTextureData = function (e, t) {
for (var r = e.reduce(function (e, t) {
return e + t;
}) * t, n = new Uint8Array(r), i = !0, o = 0, u = 0, a = e; u < a.length; u++) {
for (var p = a[u], c = 0; c < p * t; c++) n[o++] = i ? 255 : 0;
i = !i;
}
return n;
}, e;
}();
t.StippleTextureRepository = u, t.createStipplePattern = i, t.createStipplePatternSimple = o;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/materials/renderers/Instance.js":
/*!******************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/materials/renderers/Instance.js ***!
\******************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineMaterialsRenderersInstanceJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../core/libs/gl-matrix-2/mat4 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/mat4.js"), __webpack_require__(
/*! ../../../../../core/libs/gl-matrix-2/mat4f64 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/mat4f64.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (t, i, a, r) {
return function () {
function t(t, i, n, s, o, e, m, h, l) {
this.name = t, this.from = i, this.to = n, this.displayedIndexRange = s, this.highlightedIndexRanges = o, this.transformation = e, this.instanceParameters = m, this.idx = h, this.dataId = l, null != e && (this.transformationNormal = r.mat4f64.clone(e), a.mat4.invert(this.transformationNormal, this.transformationNormal), a.mat4.transpose(this.transformationNormal, this.transformationNormal));
}
return t;
}();
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/materials/renderers/InstancedRenderer.js":
/*!***************************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/materials/renderers/InstancedRenderer.js ***!
\***************************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineMaterialsRenderersInstancedRendererJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../core/libs/gl-matrix-2/mat4f64 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/mat4f64.js"), __webpack_require__(
/*! ../../../support/buffer/glUtil */
"./node_modules/arcgis-js-api/views/3d/support/buffer/glUtil.js"), __webpack_require__(
/*! ../../lib/DefaultVertexAttributeLocations */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/DefaultVertexAttributeLocations.js"), __webpack_require__(
/*! ./Instance */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/materials/renderers/Instance.js"), __webpack_require__(
/*! ./utils */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/materials/renderers/utils.js"), __webpack_require__(
/*! ../../../../webgl/BufferObject */
"./node_modules/arcgis-js-api/views/webgl/BufferObject.js"), __webpack_require__(
/*! ../../../../webgl/Util */
"./node_modules/arcgis-js-api/views/webgl/Util.js"), __webpack_require__(
/*! ../../../../webgl/VertexArrayObject */
"./node_modules/arcgis-js-api/views/webgl/VertexArrayObject.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, t, r, i, n, a, o, h, g, s) {
function u(e, t) {
var r = new Map(),
i = function i(e, t) {
var i = e.origin.id,
n = e.data.id,
a = r.get(i);
a || (a = {
origin: e.origin.vec3,
deltaByGeometry: new Map()
}, r.set(i, a));
var o = a.deltaByGeometry.get(n);
o || (o = {
renderData: e.data,
toAdd: [],
toRemove: []
}, a.deltaByGeometry.set(n, o)), (t ? o.toAdd : o.toRemove).push(e);
};
return e.forEach(function (e) {
i(e, !0);
}), t.forEach(function (e) {
i(e, !1);
}), r;
}
function l(e, t, r) {
var i = t.elementCount(e),
n = t.allocate(i);
t.write({}, e, n, 0), r.setData(n.buffer);
}
return function () {
function e(e, t, r, i) {
void 0 === i && (i = n.Default3D), this.type = "InstancedRenderer", this._dataByOrigin = new Map(), this._highlightCount = 0, this._rctx = e, this._vertexAttributeLocations = i, this._material = r, this._materialRep = t, this._glMaterials = o.acquireMaterials(this._material, this._materialRep), this._bufferWriter = r.createBufferWriter();
}
return e.prototype.dispose = function () {
o.releaseMaterials(this._material, this._materialRep);
}, Object.defineProperty(e.prototype, "isEmpty", {
get: function get() {
return 0 === this._dataByOrigin.size;
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(e.prototype, "hasHighlights", {
get: function get() {
return this._highlightCount > 0;
},
enumerable: !0,
configurable: !0
}), e.prototype.hasWater = function () {
return !1;
}, e.prototype.renderPriority = function () {
return this._material.renderPriority;
}, e.prototype.modify = function (e) {
this.updateGeometries(e.toUpdate), this.addAndRemoveGeometries(e.toAdd, e.toRemove), this.updateHighlightCount();
}, e.prototype.addAndRemoveGeometries = function (e, t) {
var n = this,
d = this._rctx,
f = this._bufferWriter,
c = this._dataByOrigin,
y = u(e, t),
m = f.vertexBufferLayout;
y.forEach(function (e, t) {
var u = c.get(t);
u || (u = {
origin: e.origin,
highlightCount: 0,
dataByGeometry: new Map()
}, c.set(t, u)), e.deltaByGeometry.forEach(function (e, t) {
var c = u.dataByGeometry.get(t);
!c && e.toAdd.length > 0 && (c = {
vao: new s(d, n._vertexAttributeLocations, {
geometry: i.glLayout(m)
}, {
geometry: h.createVertex(d, 35044)
}),
vertexCount: 0,
instances: new Map(),
highlightCount: 0
}, l(e.renderData, f, c.vao.vertexBuffers.geometry), c.vertexCount = g.vertexCount(c.vao, "geometry"), u.dataByGeometry.set(t, c));
var y = c.instances;
e.toAdd.forEach(function (e) {
var t = r.mat4f64.create();
o.calculateTransformRelToOrigin(e, t);
var i = o.generateRenderGeometryVisibleIndexRanges(e),
n = o.generateRenderGeometryHighlightRanges(e),
h = new a(e.name, 0, c.vertexCount, i, n, t, e.instanceParameters, e.idx, e.data.id);
y.set(e.uniqueName, h), u.highlightCount = null, c.highlightCount = null;
}), e.toRemove.forEach(function (e) {
y["delete"](e.uniqueName);
}), 0 === y.size && (c.vao.dispose(), u.dataByGeometry["delete"](t));
}), 0 === u.dataByGeometry.size && c["delete"](t);
});
}, e.prototype.updateGeometries = function (e) {
var t = this._dataByOrigin,
r = this._bufferWriter;
e.forEach(function (e) {
var i = e.updateType,
n = e.renderGeometry,
a = t.get(n.origin.id),
h = a && a.dataByGeometry.get(n.data.id),
g = h && h.instances.get(n.uniqueName);
g && (1 & i && (g.displayedIndexRange = o.generateRenderGeometryVisibleIndexRanges(n)), 17 & i && (g.highlightedIndexRanges = o.generateRenderGeometryHighlightRanges(n), a.highlightCount = null, h.highlightCount = null), 2 & i && l(n.data, r, h.vao.vertexBuffers.geometry), 4 & i && o.calculateTransformRelToOrigin(n, g.transformation, g.transformationNormal));
});
}, e.prototype.updateHighlightCount = function () {
var e = this;
this._highlightCount = 0, this._dataByOrigin.forEach(function (t) {
if (null == t.highlightCount) {
var r = 0;
t.dataByGeometry.forEach(function (e) {
if (null == e.highlightCount) {
var t = 0;
e.instances.forEach(function (e) {
e.highlightedIndexRanges && ++t;
}), e.highlightCount = t;
}
r += e.highlightCount;
}), t.highlightCount = r;
}
e._highlightCount += t.highlightCount;
});
}, e.prototype.render = function (e, t, r, i) {
var n = this,
a = this._rctx,
o = this._glMaterials.get(t.pass),
h = 4 === t.pass;
if (!o || null != e && !o.beginSlot(e) || h && 0 === this._highlightCount) return !1;
o.bind(a, r);
var g = !1;
return this._dataByOrigin.forEach(function (e) {
h && 0 === e.highlightCount || (r.origin = e.origin, o.bindView(r), e.dataByGeometry.forEach(function (e) {
g = h ? n.renderHighlightPass(o, e, i) || g : n.renderDefaultPass(o, e, i) || g;
}));
}), a.bindVAO(null), o.release(), g;
}, e.prototype.renderDefaultPass = function (e, t, r) {
var i = this._rctx,
n = e.getDrawMode(),
a = t.vao,
h = t.vertexCount;
e.ensureAttributeLocations(a), i.bindVAO(a);
var g = !1;
return t.instances.forEach(function (t) {
var a = t.displayedIndexRange;
a && 0 === a.length || (e.bindInstance(t), a ? o.drawArraysFaceRange(i, a, 0, n, r) : o.drawArrays(i, n, 0, h, r), g = !0);
}), g;
}, e.prototype.renderHighlightPass = function (e, t, r) {
var i = this._rctx,
n = e.getDrawMode(),
a = t.vao,
h = t.vertexCount;
if (0 !== t.highlightCount) {
e.ensureAttributeLocations(a), i.bindVAO(a);
var g = !1;
return t.instances.forEach(function (t) {
var a = t.highlightedIndexRanges;
if (a && 0 !== a.length) {
e.bindInstance(t);
for (var s = 0; s < a.length; s++) {
var u = a[s],
l = u.range ? u.range[0] : 0,
d = u.range ? u.range[1] - u.range[0] + 1 : h;
o.drawArrays(i, n, l, d, r), g = !0;
}
}
}), g;
}
}, e;
}();
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/materials/renderers/MergedRenderer.js":
/*!************************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/materials/renderers/MergedRenderer.js ***!
\************************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineMaterialsRenderersMergedRendererJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../core/libs/gl-matrix-2/mat4 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/mat4.js"), __webpack_require__(
/*! ../../../../../core/libs/gl-matrix-2/mat4f64 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/mat4f64.js"), __webpack_require__(
/*! ../../../support/buffer/glUtil */
"./node_modules/arcgis-js-api/views/3d/support/buffer/glUtil.js"), __webpack_require__(
/*! ../../lib/DefaultVertexAttributeLocations */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/DefaultVertexAttributeLocations.js"), __webpack_require__(
/*! ../../lib/IntervalUtilities */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/IntervalUtilities.js"), __webpack_require__(
/*! ../../lib/ResizableFloat32Array */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/ResizableFloat32Array.js"), __webpack_require__(
/*! ../../lib/Util */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/Util.js"), __webpack_require__(
/*! ../WaterGLMaterial */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/materials/WaterGLMaterial.js"), __webpack_require__(
/*! ./Instance */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/materials/renderers/Instance.js"), __webpack_require__(
/*! ./utils */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/materials/renderers/utils.js"), __webpack_require__(
/*! ../../../../webgl/BufferObject */
"./node_modules/arcgis-js-api/views/webgl/BufferObject.js"), __webpack_require__(
/*! ../../../../webgl/Util */
"./node_modules/arcgis-js-api/views/webgl/Util.js"), __webpack_require__(
/*! ../../../../webgl/VertexArrayObject */
"./node_modules/arcgis-js-api/views/webgl/VertexArrayObject.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, t, r, a, n, i, o, s, u, d, l, f, g, h, p) {
function m(e, t, r, a) {
for (var n = new Map(), i = t.vertexBufferLayout.stride / 4, o = function o(r, a) {
var o = r.origin,
s = e.get(o.id),
u = n.get(o.id);
null == u && (u = {
optimalCount: null == s ? 0 : s.optimalCount,
sparseCount: null == s ? 0 : s.buffer.size,
toAdd: [],
toRemove: [],
origin: o.vec3
}, n.set(o.id, u));
var d = t.elementCount(r.data) * i;
a ? (u.optimalCount += d, u.sparseCount += d, u.toAdd.push(r)) : (u.optimalCount -= d, u.toRemove.push(r));
}, s = 0, u = r; s < u.length; s++) {
var d = u[s];
o(d, !0);
}
for (var l = 0, f = a; l < f.length; l++) {
var d = f[l];
o(d, !1);
}
return n;
}
var c = function () {
function e(e, t, r, a) {
void 0 === a && (a = i.Default3D), this.type = "MergedRenderer", this._dataByOrigin = new Map(), this._highlightCount = 0, this._rctx = e, this._vertexAttributeLocations = a, this._material = r, this._materialRep = t, this._glMaterials = f.acquireMaterials(this._material, this._materialRep), this._bufferWriter = r.createBufferWriter();
}
return e.prototype.dispose = function () {
f.releaseMaterials(this._material, this._materialRep);
}, Object.defineProperty(e.prototype, "isEmpty", {
get: function get() {
return 0 === this._dataByOrigin.size;
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(e.prototype, "hasHighlights", {
get: function get() {
return this._highlightCount > 0;
},
enumerable: !0,
configurable: !0
}), e.prototype.hasWater = function () {
var e = !1;
return this._glMaterials.forEach(function (t) {
e = e || t instanceof d.WaterGLMaterial;
}), e;
}, e.prototype.renderPriority = function () {
return this._material.renderPriority;
}, e.prototype.modify = function (e) {
var t = this,
r = R;
r.clear(), this.updateGeometries(e.toUpdate, r), this.addAndRemoveGeometries(e.toAdd, e.toRemove, r), this.updateHighlightCount(), r.forEach(function (e) {
return t.updateDisplayedIndexRanges(e);
});
}, e.prototype.addAndRemoveGeometries = function (e, t, r) {
var a = this,
n = this._bufferWriter,
i = n.vertexBufferLayout,
o = i.stride / 4,
s = this._dataByOrigin,
d = m(s, n, e, t);
d.forEach(function (e, t) {
d["delete"](t);
var n = e.optimalCount,
l = e.sparseCount,
f = s.get(t);
if (null == f && (u.assert(n > 0), f = a.createData(i, n, e.origin), s.set(t, f)), 0 === n) return f.vao.dispose(!0), f.vao = null, void s["delete"](t);
var g = n < e.sparseCount / 2,
h = g ? n : l,
p = y,
m = f.buffer.size,
c = f.buffer.array,
b = f.buffer.resize(h, !1);
g || b ? a.removeAndRebuild(f, e.toRemove, o, c, p) : e.toRemove.length > 0 ? (a.removeByErasing(f, e.toRemove, o, p), e.toAdd.length > 0 && (p.end = m)) : (p.begin = m, p.end = m);
var x = v;
u.setMatrixTranslation3(x, -e.origin[0], -e.origin[1], -e.origin[2]), a.append(f, e.toAdd, o, x, p);
var R = f.vao.vertexBuffers.geometry;
if (R.byteSize !== f.buffer.array.buffer.byteLength) R.setData(f.buffer.array);else {
var _ = p.begin,
C = p.end;
if (_ < C) {
var I = f.buffer.array,
A = 4 * _,
w = 4 * C;
R.setSubData(I, A, A, w);
}
}
(p.updatedDisplayedIndexRange || f.displayedIndexRanges) && r.add(f);
});
}, e.prototype.updateGeometries = function (e, t) {
for (var r = this._bufferWriter, a = r.vertexBufferLayout.stride / 4, n = 0, i = e; n < i.length; n++) {
var o = i[n],
s = o.updateType,
d = o.renderGeometry,
l = this._dataByOrigin.get(d.origin.id),
g = l && l.instances.get(d.uniqueName);
if (!g) return;
if (1 & s && (g.displayedIndexRange = f.generateRenderGeometryVisibleIndexRanges(d), t.add(l)), 17 & s && (g.highlightedIndexRanges = f.generateRenderGeometryHighlightRanges(d), l.highlightCount = null), 6 & s) {
var h = l.buffer.array,
p = l.vao;
f.calculateTransformRelToOrigin(d, b, x), r.write({
transformation: b,
invTranspTransformation: x
}, d.data, r.vertexBufferLayout.createView(h.buffer), g.from), u.assert(g.from + r.elementCount(d.data) === g.to, "material VBO layout has changed"), p.vertexBuffers.geometry.setSubData(h, g.from * a * 4, g.from * a * 4, g.to * a * 4);
}
}
}, e.prototype.updateDisplayedIndexRanges = function (e) {
e.displayedIndexRanges = [];
var t = !0;
e.instances.forEach(function (r) {
r.displayedIndexRange ? (e.displayedIndexRanges.push.apply(e.displayedIndexRanges, o.offsetIntervals(r.displayedIndexRange, r.from)), t = !1) : e.displayedIndexRanges.push([r.from, r.to - 1]);
}), e.displayedIndexRanges = t ? null : o.mergeIntervals(e.displayedIndexRanges);
}, e.prototype.updateHighlightCount = function () {
var e = this;
this._highlightCount = 0, this._dataByOrigin.forEach(function (t) {
if (null == t.highlightCount) {
var r = 0;
t.instances.forEach(function (e) {
e.highlightedIndexRanges && ++r;
}), t.highlightCount = r;
}
e._highlightCount += t.highlightCount;
});
}, e.prototype.updateLogic = function (e) {
return this._material.update(e);
}, e.prototype.render = function (e, t, r, n) {
var i = this,
o = this._rctx,
s = this._glMaterials.get(t.pass),
u = 4 === t.pass,
d = e;
if (2 === t.pass && null === d && (d = 19), !s || 1 === s.ensureResources(o) || null != d && !s.beginSlot(d) || u && 0 === this._highlightCount) return !1;
s.bind(o, r);
var l = s.getProgram();
l.setUniformMatrix4fv("model", a.mat4f64.IDENTITY), l.hasUniform("modelNormal") && l.setUniformMatrix4fv("modelNormal", a.mat4f64.IDENTITY);
var f = !1;
return this._dataByOrigin.forEach(function (e) {
u && 0 === e.highlightCount || (r.origin = e.origin, s.bindView(r), f = u ? i.renderHighlightPass(s, e, n) || f : i.renderDefaultPass(s, e, n) || f);
}), s.release(), f;
}, e.prototype.renderDefaultPass = function (e, t, r) {
var a = this._rctx,
n = e.getDrawMode(),
i = t.displayedIndexRanges;
if (i && 0 === i.length) return !1;
if (e.ensureAttributeLocations(t.vao), a.bindVAO(t.vao), i) f.drawArraysFaceRange(a, i, 0, n, r);else {
var o = 4 * t.buffer.size / h.getStride(t.vao.layout.geometry);
f.drawArrays(a, n, 0, o, r);
}
return !0;
}, e.prototype.renderHighlightPass = function (e, t, r) {
var a = this._rctx,
n = e.getDrawMode(),
i = t.vao;
e.ensureAttributeLocations(i), a.bindVAO(i);
var o = !1;
return t.instances.forEach(function (e) {
var t = e.highlightedIndexRanges;
if (t && 0 !== t.length) for (var i = 0; i < t.length; i++) {
var s = t[i],
u = s.range ? s.range[0] + e.from : e.from,
d = s.range ? s.range[1] - s.range[0] + 1 : e.to - e.from;
f.drawArrays(a, n, u, d, r), o = !0;
}
}), o;
}, e.prototype.createData = function (e, t, r) {
return {
instances: new Map(),
vao: new p(this._rctx, this._vertexAttributeLocations, {
geometry: n.glLayout(e)
}, {
geometry: g.createVertex(this._rctx, 35044)
}),
buffer: new s.ResizableFloat32Array(t),
optimalCount: 0,
origin: r,
highlightCount: 0
};
}, e.prototype.removeAndRebuild = function (e, t, r, a, n) {
for (var i = 0, o = t; i < o.length; i++) {
var s = o[i],
u = s.uniqueName,
d = e.instances.get(u);
e.optimalCount -= (d.to - d.from) * r, e.instances["delete"](u);
}
var l = 0,
f = e.buffer.array;
n.begin = 0, n.end = 0;
var g = -1,
h = -1,
p = 0;
e.instances.forEach(function (e) {
var t = e.from * r,
n = e.to * r,
i = n - t;
g !== h && h !== t ? (f.set(a.subarray(g, h), p), p += h - g, g = t) : -1 === g && (g = t), h = n, e.from = l / r, l += i, e.to = l / r;
}), g !== h && f.set(a.subarray(g, h), p), n.end = l;
}, e.prototype.removeByErasing = function (e, t, r, a) {
a.begin = 1 / 0, a.end = -1 / 0;
for (var n = -1, i = -1, o = 0, s = t; o < s.length; o++) {
var u = s[o],
d = u.uniqueName,
l = e.instances.get(d),
f = l.from * r,
g = l.to * r;
n !== i && i !== f ? (e.buffer.erase(n, i), n = f) : -1 === n && (n = f), i = g, e.instances["delete"](d), e.optimalCount -= g - f, f < a.begin && (a.begin = f), g > a.end && (a.end = g);
}
n !== i && e.buffer.erase(n, i);
}, e.prototype.append = function (e, t, a, n, i) {
i.updatedDisplayedIndexRange = !1;
for (var o = this._bufferWriter, s = 0, d = t; s < d.length; s++) {
var g = d[s],
h = g.data;
r.mat4.multiply(b, n, g.transformation), r.mat4.invert(x, b), r.mat4.transpose(x, x);
var p = i.end;
o.write({
transformation: b,
invTranspTransformation: x
}, h, o.vertexBufferLayout.createView(e.buffer.array.buffer), i.end / a);
var m = o.elementCount(h) * a,
c = p + m;
u.assert(null == e.instances.get(g.uniqueName));
var y = f.generateRenderGeometryVisibleIndexRanges(g),
v = f.generateRenderGeometryHighlightRanges(g);
v && (e.highlightCount = null);
var R = new l(g.name, p / a, c / a, y, v, void 0, void 0, g.idx);
e.instances.set(g.uniqueName, R), y && (i.updatedDisplayedIndexRange = !0), e.optimalCount += m, i.end += m;
}
}, Object.defineProperty(e.prototype, "test", {
get: function get() {
return {
material: this._material
};
},
enumerable: !0,
configurable: !0
}), e;
}(),
y = {
updatedDisplayedIndexRange: !1,
begin: 0,
end: 0
},
v = a.mat4f64.create(),
b = a.mat4f64.create(),
x = a.mat4f64.create(),
R = new Set();
return c;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/materials/renderers/utils.js":
/*!***************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/materials/renderers/utils.js ***!
\***************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineMaterialsRenderersUtilsJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../../core/libs/gl-matrix-2/mat4 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/mat4.js"), __webpack_require__(
/*! ../../../../../core/libs/gl-matrix-2/mat4f64 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/mat4f64.js"), __webpack_require__(
/*! ../../lib/ComponentUtils */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/ComponentUtils.js"), __webpack_require__(
/*! ../../lib/Util */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/Util.js"), __webpack_require__(
/*! ../../../../webgl/Util */
"./node_modules/arcgis-js-api/views/webgl/Util.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, t, r, n, a, i, s) {
function l(e) {
if (e.instanceParameters.hidden) return [];
var t = e.instanceParameters.componentVisibilities,
r = e.componentOffsets;
return a.generateVisibleIndexRanges(t, r);
}
function o(e) {
if (e.instanceParameters.hidden) return null;
var t = e.instanceParameters.componentVisibilities,
r = e.instanceParameters.componentHighlights,
n = e.componentOffsets;
return a.generateHighlightedIndexRanges(t, r, n);
}
function c(e) {
if (e.instanceParameters.hidden) return !1;
var t = e.instanceParameters.componentVisibilities,
r = e.instanceParameters.componentHighlights,
n = e.componentOffsets;
return a.hasHighlights(t, r, n);
}
function d(e) {
if (e.instanceParameters.hidden) return !0;
var t = e.instanceParameters.componentVisibilities,
r = e.componentOffsets;
return a.isAllHidden(t, r);
}
function m(e, t, r, n, a) {
e.drawArrays(t, r, n), a && (a.drawCalls++, 4 === t && (a.triangles += n));
}
function g(e, t, r, n, a, i) {
var l = s.getBytesPerElement(r);
e.drawElements(t, a, r, n * l), i && (i.drawCalls++, 4 === t && (i.triangles += a));
}
function h(e, t, r, n, a) {
for (var i = 0, s = 0, l = t; s < l.length; s++) {
var o = l[s],
c = o[0] + r,
d = o[1] - o[0] + 1;
i += d, e.drawArrays(n, c, d);
}
a && (a.drawCalls += t.length, 4 === n && (a.triangles = i / 3));
}
function u(e, t, r, n, a, i) {
for (var l = s.getBytesPerElement(a), o = 0, c = 0, d = t; c < d.length; c++) {
var m = d[c],
g = m[0] + r,
h = m[1] - m[0] + 1;
o += h, e.drawElements(n, h, a, g * l);
}
i && (i.drawCalls += t.length, 4 === n && (i.triangles += o / 3));
}
function f(e, t) {
var r = new Map();
return r.set(0, t.acquire(e, "color")), r.set(3, t.acquire(e, "depthShadowMap")), r.set(2, t.acquire(e, "normal")), r.set(1, t.acquire(e, "depth")), r.set(4, t.acquire(e, "highlight")), r;
}
function p(e, t) {
t.release(e.id, "color"), t.release(e.id, "depthShadowMap"), t.release(e.id, "normal"), t.release(e.id, "depth"), t.release(e.id, "highlight");
}
function v(e, t, n) {
var a = e.origin.vec3;
i.setMatrixTranslation3(w, -a[0], -a[1], -a[2]), r.mat4.multiply(t, w, e.transformation), n && (r.mat4.invert(n, t), r.mat4.transpose(n, n));
}
Object.defineProperty(t, "__esModule", {
value: !0
}), t.generateRenderGeometryVisibleIndexRanges = l, t.generateRenderGeometryHighlightRanges = o, t.doesRenderGeometryHaveHighlights = c, t.isRenderGeometryHidden = d, t.drawArrays = m, t.drawElements = g, t.drawArraysFaceRange = h, t.drawElementsFaceRange = u, t.acquireMaterials = f, t.releaseMaterials = p, t.calculateTransformRelToOrigin = v;
var w = n.mat4f64.create();
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/shaders/DefaultMaterial.glsl.js":
/*!******************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/shaders/DefaultMaterial.glsl.js ***!
\******************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineShadersDefaultMaterialGlslJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../core/tsSupport/makeTemplateObjectHelper */
"./node_modules/arcgis-js-api/core/tsSupport/makeTemplateObjectHelper.js"), __webpack_require__(
/*! ../collections/Component/Material/shader/DecodeSymbolColor.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/collections/Component/Material/shader/DecodeSymbolColor.glsl.js"), __webpack_require__(
/*! ../core/shaderLibrary/DiscardOrAdjustAlpha.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/DiscardOrAdjustAlpha.glsl.js"), __webpack_require__(
/*! ../core/shaderLibrary/ForwardLinearDepth.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/ForwardLinearDepth.glsl.js"), __webpack_require__(
/*! ../core/shaderLibrary/Offset.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/Offset.glsl.js"), __webpack_require__(
/*! ../core/shaderLibrary/Slice.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/Slice.glsl.js"), __webpack_require__(
/*! ../core/shaderLibrary/Transform.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/Transform.glsl.js"), __webpack_require__(
/*! ../core/shaderLibrary/attributes/PositionAttribute.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/attributes/PositionAttribute.glsl.js"), __webpack_require__(
/*! ../core/shaderLibrary/attributes/TextureCoordinateAttribute.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/attributes/TextureCoordinateAttribute.glsl.js"), __webpack_require__(
/*! ../core/shaderLibrary/attributes/VertexColor.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/attributes/VertexColor.glsl.js"), __webpack_require__(
/*! ../core/shaderLibrary/attributes/VertexNormal.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/attributes/VertexNormal.glsl.js"), __webpack_require__(
/*! ../core/shaderLibrary/attributes/VerticalOffset.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/attributes/VerticalOffset.glsl.js"), __webpack_require__(
/*! ../core/shaderLibrary/output/OutputDepth.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/output/OutputDepth.glsl.js"), __webpack_require__(
/*! ../core/shaderLibrary/shading/ComputeNormalTexture.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/ComputeNormalTexture.glsl.js"), __webpack_require__(
/*! ../core/shaderLibrary/shading/EvaluateAmbientOcclusion.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/EvaluateAmbientOcclusion.glsl.js"), __webpack_require__(
/*! ../core/shaderLibrary/shading/EvaluateSceneLighting.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/EvaluateSceneLighting.glsl.js"), __webpack_require__(
/*! ../core/shaderLibrary/shading/HighlightData.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/HighlightData.glsl.js"), __webpack_require__(
/*! ../core/shaderLibrary/shading/Normals.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/Normals.glsl.js"), __webpack_require__(
/*! ../core/shaderLibrary/shading/PhysicallyBasedRendering.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/PhysicallyBasedRendering.glsl.js"), __webpack_require__(
/*! ../core/shaderLibrary/shading/PhysicallyBasedRenderingParameters.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/PhysicallyBasedRenderingParameters.glsl.js"), __webpack_require__(
/*! ../core/shaderLibrary/shading/ReadShadowMap.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/ReadShadowMap.glsl.js"), __webpack_require__(
/*! ../core/shaderLibrary/shading/VisualVariables.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/VisualVariables.glsl.js"), __webpack_require__(
/*! ../core/shaderLibrary/util/DoublePrecision.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/util/DoublePrecision.glsl.js"), __webpack_require__(
/*! ../core/shaderLibrary/util/MixExternalColor.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/util/MixExternalColor.glsl.js"), __webpack_require__(
/*! ../core/shaderModules/interfaces */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/interfaces.js"), __webpack_require__(
/*! ../core/shaderModules/ShaderBuilder */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/ShaderBuilder.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (o, e, a, n, l, i, r, t, d, s, c, v, m, g, u, p, h, x, f, b, y, C, O, w, P, L, D, M) {
function N(o) {
var e = new M.ShaderBuilder(),
N = e.vertex.code,
Bo = e.fragment.code;
return N.add(D.glsl(A || (A = a(["\n // --- Default Material:\n // ", "\n // ---\n "], ["\n // --- Default Material:\n // ", "\n // ---\n "])), JSON.stringify(o))), Bo.add(D.glsl(S || (S = a(["\n // --- Default Material:\n // ", "\n // ---\n "], ["\n // --- Default Material:\n // ", "\n // ---\n "])), JSON.stringify(o))), e.vertex.uniforms.add("proj", "mat4").add("view", "mat4").add("camPos", "vec3").add("localOrigin", "vec3"), e.include(s.PositionAttribute), e.varyings.add("vpos", "vec3"), e.include(w.VisualVariables, o), o.instanced && o.instancedDoublePrecision ? (e.attributes.add("modelOriginHi", "vec3"), e.attributes.add("modelOriginLo", "vec3"), e.attributes.add("model", "mat3"), e.attributes.add("modelNormal", "mat3")) : (e.vertex.uniforms.add("model", "mat4"), e.vertex.uniforms.add("modelNormal", "mat4")), o.instancedDoublePrecision ? (e.include(P.DoublePrecision, o), e.vertex.uniforms.add("viewOriginHi", "vec3"), e.vertex.uniforms.add("viewOriginLo", "vec3"), N.add(D.glsl(F || (F = a(["\n vec3 calculateVPos() {\n return model * localPosition().xyz;\n }\n "], ["\n vec3 calculateVPos() {\n return model * localPosition().xyz;\n }\n "]))))) : N.add(D.glsl(T || (T = a(["\n vec3 calculateVPos() {\n return (model * localPosition()).xyz;\n }\n "], ["\n vec3 calculateVPos() {\n return (model * localPosition()).xyz;\n }\n "])))), e.include(g.VerticalOffset, o), 0 === o.output && (e.include(d.Transform, {
linearDepth: !1
}), 0 === o.normalType && o.offsetBackfaces && e.include(r.Offset), e.include(p.ComputeNormalTexture, o), e.include(m.VertexNormal, o), o.instancedColor && e.attributes.add("instanceColor", "vec4"), e.varyings.add("localvpos", "vec3"), e.include(c.TextureCoordinateAttribute, o), e.include(i.ForwardLinearDepth, o), o.symbolColor ? (e.include(n.DecodeSymbolColor), e.attributes.add("symbolColor", "vec4"), e.varyings.add("colorMixMode", "mediump float")) : e.fragment.uniforms.add("colorMixMode", "int"), e.include(v.VertexColor, o), e.vertex.uniforms.add("externalColor", "vec4"), e.varyings.add("vcolorExt", "vec4"), e.vertex.defines.addFloat("SYMBOL_ALPHA_CUTOFF", .001), N.add(D.glsl(_ || (_ = a(["\n void main(void) {\n forwardNormalizedVertexColor();\n vcolorExt = externalColor;\n ", "\n vcolorExt *= vvColor();\n "], ["\n void main(void) {\n forwardNormalizedVertexColor();\n vcolorExt = externalColor;\n ", "\n vcolorExt *= vvColor();\n "])), o.instancedColor ? "vcolorExt *= instanceColor;" : "")), o.symbolColor && N.add(D.glsl(V || (V = a(["\n int symbolColorMixMode;\n vcolorExt *= decodeSymbolColor(symbolColor, symbolColorMixMode) * 0.003921568627451; // = 1/255;\n colorMixMode = float(symbolColorMixMode) + 0.5; // add 0.5 to avoid interpolation artifacts\n "], ["\n int symbolColorMixMode;\n vcolorExt *= decodeSymbolColor(symbolColor, symbolColorMixMode) * 0.003921568627451; // = 1/255;\n colorMixMode = float(symbolColorMixMode) + 0.5; // add 0.5 to avoid interpolation artifacts\n "])))), N.add(D.glsl(z || (z = a(["\n if (vcolorExt.a < SYMBOL_ALPHA_CUTOFF) {\n gl_Position = vec4(1e38, 1e38, 1e38, 1.0);\n }\n else {\n vpos = calculateVPos();\n localvpos = vpos - view[3].xyz;\n "], ["\n if (vcolorExt.a < SYMBOL_ALPHA_CUTOFF) {\n gl_Position = vec4(1e38, 1e38, 1e38, 1.0);\n }\n else {\n vpos = calculateVPos();\n localvpos = vpos - view[3].xyz;\n "])))), o.instancedDoublePrecision ? (0 === o.normalType && N.add(D.glsl(E || (E = a(["\n vNormalWorld = normalize(modelNormal * vvLocalNormal(normalModel()).xyz);\n "], ["\n vNormalWorld = normalize(modelNormal * vvLocalNormal(normalModel()).xyz);\n "])))), N.add(D.glsl(B || (B = a(["\n vec3 originDelta = dpAdd(viewOriginHi, viewOriginLo, -modelOriginHi, -modelOriginLo);\n vpos -= originDelta;\n "], ["\n vec3 originDelta = dpAdd(viewOriginHi, viewOriginLo, -modelOriginHi, -modelOriginLo);\n vpos -= originDelta;\n "]))))) : 0 === o.normalType && N.add(D.glsl(H || (H = a(["\n vNormalWorld = normalize((modelNormal * vvLocalNormal(normalModel())).xyz);\n "], ["\n vNormalWorld = normalize((modelNormal * vvLocalNormal(normalModel())).xyz);\n "])))), N.add(D.glsl(j || (j = a(["\n ", "\n ", "\n gl_Position = transformPosition(proj, view, vpos);\n ", "\n }\n forwardLinearDepth();\n forwardTextureCoordinates();\n }\n "], ["\n ", "\n ", "\n gl_Position = transformPosition(proj, view, vpos);\n ", "\n }\n forwardLinearDepth();\n forwardTextureCoordinates();\n }\n "])), o.verticalOffsetEnabled ? "vpos += calculateVerticalOffset(vpos, localOrigin);" : "", o.vertexTangets ? "transformVertexTangent(mat3(modelNormal));" : "", 0 === o.normalType && o.offsetBackfaces ? "gl_Position = offsetBackfacingClipPosition(gl_Position, vpos, vNormalWorld, camPos);" : "")), e.include(t.Slice, o), e.include(x.EvaluateSceneLighting, o), e.include(h.EvaluateAmbientOcclusion, o), e.include(l.DiscardOrAdjustAlpha, o), o.receiveShadows && e.include(O.ReadShadowMap, o), e.fragment.uniforms.add("camPos", "vec3").add("localOrigin", "vec3").add("ambient", "vec3").add("diffuse", "vec3").add("specular", "vec3").add("opacity", "float").add("layerOpacity", "float"), o.treeRendering && e.fragment.uniforms.add("view", "mat4"), o.hasColorTexture && e.fragment.uniforms.add("tex", "sampler2D"), 3 === o.normalType && e.extensions.add("GL_OES_standard_derivatives"), e.include(C.PhysicallyBasedRenderingParameters, o), e.include(y.PhysicallyBasedRendering, o), e.include(L.MixExternalColor, {
stages: 1
}), e.include(b.Normals, o), Bo.add(D.glsl(R || (R = a(["\n void main() {\n discardBySlice(vpos);\n "], ["\n void main() {\n discardBySlice(vpos);\n "])))), o.hasColorTexture ? (Bo.add(D.glsl(W || (W = a(["\n vec4 texColor = texture2D(tex, vuv0);\n "], ["\n vec4 texColor = texture2D(tex, vuv0);\n "])))), o.textureAlphaPremultiplied && Bo.add(D.glsl(I || (I = a(["\n texColor.rgb /= texColor.a;\n "], ["\n texColor.rgb /= texColor.a;\n "])))), Bo.add(D.glsl(k || (k = a(["\n discardOrAdjustAlpha(texColor);\n "], ["\n discardOrAdjustAlpha(texColor);\n "]))))) : Bo.add(D.glsl(G || (G = a(["\n vec4 texColor = vec4(1.0);\n "], ["\n vec4 texColor = vec4(1.0);\n "])))), Bo.add(D.glsl(U || (U = a(["\n shadingParams.viewDirection = normalize(vpos - camPos);\n "], ["\n shadingParams.viewDirection = normalize(vpos - camPos);\n "])))), 3 === o.normalType ? 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(o.vertexTangets ? Bo.add(D.glsl(no || (no = a(["\n mat3 tangentSpace = computeTangentSpace(normal);\n "], ["\n mat3 tangentSpace = computeTangentSpace(normal);\n "])))) : Bo.add(D.glsl(lo || (lo = a(["\n mat3 tangentSpace = computeTangentSpace(normal, vpos, vuv0);\n "], ["\n mat3 tangentSpace = computeTangentSpace(normal, vpos, vuv0);\n "])))), Bo.add(D.glsl(io || (io = a(["\n vec3 shadedNormal = computeTextureNormal(tangentSpace, vuv0);\n "], ["\n vec3 shadedNormal = computeTextureNormal(tangentSpace, vuv0);\n "]))))) : Bo.add(D.glsl(ro || (ro = a(["\n vec3 shadedNormal = normal;\n "], ["\n vec3 shadedNormal = normal;\n "])))), o.treeRendering && Bo.add(D.glsl(to || (to = a(["\n shadedNormal = normalize(vNormalWorld);\n albedo_ *= 1.2;\n vec3 viewForward = - vec3(view[0][2], view[1][2], view[2][2]);\n float alignmentLightView = clamp(dot(-viewForward, lightingMainDirection), 0.0, 1.0);\n\n float transmittance = 1.0 - clamp(dot(-viewForward, shadedNormal), 0.0, 1.0);\n float treeRadialFalloff = vColor.r;\n float backLightFactor = 0.5 * treeRadialFalloff * alignmentLightView * transmittance * (1.0 - shadow);\n additionalLight += backLightFactor * lightingMainIntensity;\n "], ["\n shadedNormal = normalize(vNormalWorld);\n albedo_ *= 1.2;\n vec3 viewForward = - vec3(view[0][2], view[1][2], view[2][2]);\n float alignmentLightView = clamp(dot(-viewForward, lightingMainDirection), 0.0, 1.0);\n\n float transmittance = 1.0 - clamp(dot(-viewForward, shadedNormal), 0.0, 1.0);\n float treeRadialFalloff = vColor.r;\n float backLightFactor = 0.5 * treeRadialFalloff * alignmentLightView * transmittance * (1.0 - shadow);\n additionalLight += backLightFactor * lightingMainIntensity;\n "])))), o.usePBR ? Bo.add(D.glsl(so || (so = a(["\n float additionalAmbientIrradiance = additionalAmbientIrradianceFactor * lightingMainIntensity[2];\n vec3 normalGround = normalize(vpos + localOrigin);\n vec3 shadedColor = evaluateSceneLightingPBR(shadedNormal, albedo_, shadow, 1.0 - ssao, additionalLight, shadingParams.viewDirection, normalGround, roughness, metalness, emission, reflectance, additionalAmbientIrradiance);\n "], ["\n float additionalAmbientIrradiance = additionalAmbientIrradianceFactor * lightingMainIntensity[2];\n vec3 normalGround = normalize(vpos + localOrigin);\n vec3 shadedColor = evaluateSceneLightingPBR(shadedNormal, albedo_, shadow, 1.0 - ssao, additionalLight, shadingParams.viewDirection, normalGround, roughness, metalness, emission, reflectance, additionalAmbientIrradiance);\n "])))) : Bo.add(D.glsl(co || (co = a(["\n vec3 shadedColor = evaluateSceneLighting(shadedNormal, albedo_, shadow, 1.0 - ssao, additionalLight);\n "], ["\n vec3 shadedColor = evaluateSceneLighting(shadedNormal, albedo_, shadow, 1.0 - ssao, additionalLight);\n "])))), Bo.add(D.glsl(vo || (vo = a(["\n gl_FragColor = highlightSlice(vec4(shadedColor, opacity_), vpos);\n }\n "], ["\n gl_FragColor = highlightSlice(vec4(shadedColor, opacity_), vpos);\n }\n "]))))), 1 !== o.output && 3 !== o.output || (e.include(d.Transform, {
linearDepth: !0
}), e.include(c.TextureCoordinateAttribute, o), e.include(w.VisualVariables, o), e.include(u.OutputDepth, o), e.include(t.Slice, o), e.vertex.uniforms.add("nearFar", "vec2"), e.varyings.add("depth", "float"), o.hasColorTexture && e.fragment.uniforms.add("tex", "sampler2D"), N.add(D.glsl(mo || (mo = a(["\n void main(void) {\n vpos = calculateVPos();\n "], ["\n void main(void) {\n vpos = calculateVPos();\n "])))), o.instancedDoublePrecision && N.add(D.glsl(go || (go = a(["\n vec3 originDelta = dpAdd(viewOriginHi, viewOriginLo, -modelOriginHi, -modelOriginLo);\n vpos -= originDelta;\n "], ["\n vec3 originDelta = dpAdd(viewOriginHi, viewOriginLo, -modelOriginHi, -modelOriginLo);\n vpos -= originDelta;\n "])))), o.verticalOffsetEnabled && N.add(D.glsl(uo || (uo = a(["\n vpos += calculateVerticalOffset(vpos, localOrigin);\n "], ["\n vpos += calculateVerticalOffset(vpos, localOrigin);\n "])))), N.add(D.glsl(po || (po = a(["\n gl_Position = transformPositionWithDepth(proj, view, vpos, nearFar, depth);\n forwardTextureCoordinates();\n }\n "], ["\n gl_Position = transformPositionWithDepth(proj, view, vpos, nearFar, depth);\n forwardTextureCoordinates();\n }\n "])))), e.include(l.DiscardOrAdjustAlpha, o), Bo.add(D.glsl(ho || (ho = a(["\n void main(void) {\n discardBySlice(vpos);\n "], ["\n void main(void) {\n discardBySlice(vpos);\n "])))), o.hasColorTexture && Bo.add(D.glsl(xo || (xo = a(["\n vec4 texColor = texture2D(tex, vuv0);\n discardOrAdjustAlpha(texColor);\n "], ["\n vec4 texColor = texture2D(tex, vuv0);\n discardOrAdjustAlpha(texColor);\n "])))), Bo.add(D.glsl(fo || (fo = a(["\n outputDepth(depth);\n }\n "], ["\n outputDepth(depth);\n }\n "]))))), 2 === o.output && (3 === o.normalType && e.extensions.add("GL_OES_standard_derivatives"), e.include(d.Transform, {
linearDepth: !1
}), e.include(m.VertexNormal, o), e.include(c.TextureCoordinateAttribute, o), e.include(w.VisualVariables, o), o.hasColorTexture && e.fragment.uniforms.add("tex", "sampler2D"), e.vertex.uniforms.add("viewNormal", "mat4"), e.varyings.add("vPositionView", "vec3"), N.add(D.glsl(bo || (bo = a(["\n void main(void) {\n vpos = calculateVPos();\n "], ["\n void main(void) {\n vpos = calculateVPos();\n "])))), o.instancedDoublePrecision ? (0 === o.normalType && N.add(D.glsl(yo || (yo = a(["\n vNormalWorld = normalize((viewNormal * vec4(modelNormal * vvLocalNormal(normalModel()).xyz, 1.0)).xyz);\n "], ["\n vNormalWorld = normalize((viewNormal * vec4(modelNormal * vvLocalNormal(normalModel()).xyz, 1.0)).xyz);\n "])))), N.add(D.glsl(Co || (Co = a(["\n vec3 originDelta = dpAdd(viewOriginHi, viewOriginLo, -modelOriginHi, -modelOriginLo);\n vpos -= originDelta;\n "], ["\n vec3 originDelta = dpAdd(viewOriginHi, viewOriginLo, -modelOriginHi, -modelOriginLo);\n vpos -= originDelta;\n "]))))) : 0 === o.normalType && N.add(D.glsl(Oo || (Oo = a(["\n vNormalWorld = normalize((viewNormal * modelNormal * vvLocalNormal(normalModel())).xyz);\n "], ["\n vNormalWorld = normalize((viewNormal * modelNormal * vvLocalNormal(normalModel())).xyz);\n "])))), o.verticalOffsetEnabled && N.add(D.glsl(wo || (wo = a(["\n vpos += calculateVerticalOffset(vpos, localOrigin);\n "], ["\n vpos += calculateVerticalOffset(vpos, localOrigin);\n "])))), N.add(D.glsl(Po || (Po = a(["\n gl_Position = transformPosition(proj, view, vpos);\n forwardTextureCoordinates();\n }\n "], ["\n gl_Position = transformPosition(proj, view, vpos);\n forwardTextureCoordinates();\n }\n "])))), e.include(t.Slice, o), e.include(l.DiscardOrAdjustAlpha, o), Bo.add(D.glsl(Lo || (Lo = a(["\n void main() {\n discardBySlice(vpos);\n "], ["\n void main() {\n discardBySlice(vpos);\n "])))), o.hasColorTexture && Bo.add(D.glsl(Do || (Do = a(["\n vec4 texColor = texture2D(tex, vuv0);\n discardOrAdjustAlpha(texColor);\n "], ["\n vec4 texColor = texture2D(tex, vuv0);\n discardOrAdjustAlpha(texColor);\n "])))), 3 === o.normalType ? Bo.add(D.glsl(Mo || (Mo = a(["\n vec3 normal = normalize(cross(dFdx(vPositionView),dFdy(vPositionView)));\n "], ["\n vec3 normal = normalize(cross(dFdx(vPositionView),dFdy(vPositionView)));\n "])))) : Bo.add(D.glsl(No || (No = a(["\n vec3 normal = normalize(vNormalWorld);\n if (gl_FrontFacing == false) normal = -normal;\n "], ["\n vec3 normal = normalize(vNormalWorld);\n if (gl_FrontFacing == false) normal = -normal;\n "])))), Bo.add(D.glsl(Ao || (Ao = a(["\n gl_FragColor = vec4(vec3(0.5) + 0.5 * normal, 1.0);\n }\n "], ["\n gl_FragColor = vec4(vec3(0.5) + 0.5 * normal, 1.0);\n }\n "]))))), 4 === o.output && (e.include(d.Transform, {
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}), e.include(c.TextureCoordinateAttribute, o), e.include(w.VisualVariables, o), o.hasColorTexture && e.fragment.uniforms.add("tex", "sampler2D"), N.add(D.glsl(So || (So = a(["\n void main(void) {\n vpos = calculateVPos();\n "], ["\n void main(void) {\n vpos = calculateVPos();\n "])))), o.instancedDoublePrecision && N.add(D.glsl(Fo || (Fo = a(["\n vec3 originDelta = dpAdd(viewOriginHi, viewOriginLo, -modelOriginHi, -modelOriginLo);\n vpos -= originDelta;\n "], ["\n vec3 originDelta = dpAdd(viewOriginHi, viewOriginLo, -modelOriginHi, -modelOriginLo);\n vpos -= originDelta;\n "])))), o.verticalOffsetEnabled && N.add(D.glsl(To || (To = a(["\n vpos += calculateVerticalOffset(vpos, localOrigin);\n "], ["\n vpos += calculateVerticalOffset(vpos, localOrigin);\n "])))), N.add(D.glsl(_o || (_o = a(["\n gl_Position = transformPosition(proj, view, vpos);\n forwardTextureCoordinates();\n }\n "], ["\n gl_Position = transformPosition(proj, view, vpos);\n forwardTextureCoordinates();\n }\n "])))), e.include(t.Slice, o), e.include(l.DiscardOrAdjustAlpha, o), e.include(f.HighlightData), e.fragment.uniforms.add("depthTex", "sampler2D"), e.fragment.uniforms.add("highlightViewportPixelSz", "vec4"), Bo.add(D.glsl(Vo || (Vo = a(["\n void main() {\n discardBySlice(vpos);\n "], ["\n void main() {\n discardBySlice(vpos);\n "])))), o.hasColorTexture && Bo.add(D.glsl(zo || (zo = a(["\n vec4 texColor = texture2D(tex, vuv0);\n discardOrAdjustAlpha(texColor);\n "], ["\n vec4 texColor = texture2D(tex, vuv0);\n discardOrAdjustAlpha(texColor);\n "])))), Bo.add(D.glsl(Eo || (Eo = a(["\n gl_FragColor = highlightData(gl_FragCoord, depthTex, highlightViewportPixelSz);\n }\n "], ["\n gl_FragColor = highlightData(gl_FragCoord, depthTex, highlightViewportPixelSz);\n }\n "]))))), e;
}
Object.defineProperty(e, "__esModule", {
value: !0
}), e.build = N;
var A, S, F, T, _, V, z, E, B, H, j, R, W, I, k, G, U, Y, J, q, K, Q, X, Z, $, oo, eo, ao, no, lo, io, ro, to, so, co, vo, mo, go, uo, po, ho, xo, fo, bo, yo, Co, Oo, wo, Po, Lo, Do, Mo, No, Ao, So, Fo, To, _o, Vo, zo, Eo;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/shaders/DefaultMaterialTechnique.js":
/*!**********************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/shaders/DefaultMaterialTechnique.js ***!
\**********************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineShadersDefaultMaterialTechniqueJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../core/tsSupport/extendsHelper */
"./node_modules/arcgis-js-api/core/tsSupport/extendsHelper.js"), __webpack_require__(
/*! ../../../../core/tsSupport/decorateHelper */
"./node_modules/arcgis-js-api/core/tsSupport/decorateHelper.js"), __webpack_require__(
/*! ../core/shaderLibrary/output/OutputHighlight.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/output/OutputHighlight.glsl.js"), __webpack_require__(
/*! ../core/shaderLibrary/shading/PhysicallyBasedRenderingParameters.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/PhysicallyBasedRenderingParameters.glsl.js"), __webpack_require__(
/*! ../core/shaderLibrary/shading/VisualVariables.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/VisualVariables.glsl.js"), __webpack_require__(
/*! ../core/shaderLibrary/util/DoublePrecision.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/util/DoublePrecision.glsl.js"), __webpack_require__(
/*! ../core/shaderTechnique/ReloadableShaderModule */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderTechnique/ReloadableShaderModule.js"), __webpack_require__(
/*! ../core/shaderTechnique/ShaderTechnique */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderTechnique/ShaderTechnique.js"), __webpack_require__(
/*! ../core/shaderTechnique/ShaderTechniqueConfiguration */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderTechnique/ShaderTechniqueConfiguration.js"), __webpack_require__(
/*! ../lib/DefaultVertexAttributeLocations */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/DefaultVertexAttributeLocations.js"), __webpack_require__(
/*! ../materials/internal/MaterialUtil */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/materials/internal/MaterialUtil.js"), __webpack_require__(
/*! ./DefaultMaterial.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/shaders/DefaultMaterial.glsl.js"), __webpack_require__(
/*! ../../../webgl/Program */
"./node_modules/arcgis-js-api/views/webgl/Program.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, r, t, o, a, i, s, n, l, u, p, d, c, h, m) {
Object.defineProperty(r, "__esModule", {
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var v = function (r) {
function o() {
return null !== r && r.apply(this, arguments) || this;
}
return t(o, r), o.prototype.initializeProgram = function (e) {
var r = o.shader.get(),
t = this.configuration,
a = r.build({
output: t.output,
viewingMode: e.viewingMode,
receiveShadows: t.receiveShadows,
slicePlaneEnabled: t.slice,
sliceHighlightDisabled: t.sliceHighlightDisabled,
symbolColor: t.symbolColors,
vvSize: t.vvSize,
vvColor: t.vvColor,
instanced: t.instanced,
instancedColor: t.instancedColor,
instancedDoublePrecision: t.instancedDoublePrecision,
useOldSceneLightInterface: !1,
usePBR: t.usePBR,
hasMetalnessAndRoughnessTexture: t.hasMetalnessAndRoughnessTexture,
hasEmissionTexture: t.hasEmissionTexture,
hasOcclusionTexture: t.hasOcclusionTexture,
hasNormalTexture: t.hasNormalTexture,
hasColorTexture: t.hasColorTexture,
receiveAmbientOcclusion: t.receiveAmbientOcclusion,
usePBRforWater: !1,
useCustomDTRExponentForWater: !1,
normalType: t.normalsTypeDerivate ? 3 : 0,
doubleSidedMode: t.doubleSidedMode,
vertexTangets: t.vertexTangents,
attributeTextureCoordinates: t.hasMetalnessAndRoughnessTexture || t.hasEmissionTexture || t.hasOcclusionTexture || t.hasNormalTexture || t.hasColorTexture ? 1 : 0,
textureAlphaPremultiplied: t.textureAlphaPremultiplied,
attributeColor: t.vertexColors,
screenSizePerspectiveEnabled: t.screenSizePerspective,
verticalOffsetEnabled: t.verticalOffset,
offsetBackfaces: t.offsetBackfaces,
doublePrecisionRequiresObfuscation: n.doublePrecisionRequiresObfuscation(e.rctx),
alphaDiscardMode: t.alphaDiscardMode,
treeRendering: t.treeRendering,
supportsTextureAtlas: !1
});
return new m(e.rctx, a.generateSource("vertex"), a.generateSource("fragment"), d.Default3D);
}, o.prototype.bindPass = function (e, r, t) {
var o = this.configuration.output;
0 === o ? (this.program.setUniform3fv("ambient", r.ambient), this.program.setUniform3fv("diffuse", r.diffuse), this.program.setUniform3fv("specular", r.specular), this.program.setUniform4fv("externalColor", r.externalColor), this.program.setUniform1i("colorMixMode", c.colorMixModes[r.colorMixMode]), this.program.setUniform1f("opacity", r.opacity), this.program.setUniform1f("layerOpacity", r.layerOpacity), this.configuration.usePBR && i.PhysicallyBasedRenderingParameters.bindUniforms(this.program, r)) : 1 === o || 3 === o ? this.program.setUniform2fv("nearFar", t.nearFar) : 4 === o && a.OutputHighlight.bindOutputHighlight(e, this.program, t), s.VisualVariables.bindUniformsForSymbols(this.program, r), "mask" !== r.textureAlphaMode && "maskBlend" !== r.textureAlphaMode || this.program.setUniform1f("textureAlphaCutoff", r.textureAlphaCutoff);
}, o.prototype.initializePipeline = function () {
return null;
}, o.shader = new l.ReloadableShaderModule(h, "./DefaultMaterial.glsl", e), o;
}(u.ShaderTechnique);
r.DefaultMaterialTechnique = v;
var f = function (e) {
function r() {
var r = null !== e && e.apply(this, arguments) || this;
return r.output = 0, r.alphaDiscardMode = 1, r.doubleSidedMode = 0, r.vertexColors = !1, r.offsetBackfaces = !1, r.symbolColors = !1, r.vvSize = !1, r.vvColor = !1, r.verticalOffset = !1, r.receiveShadows = !1, r.slice = !1, r.sliceHighlightDisabled = !1, r.receiveAmbientOcclusion = !1, r.screenSizePerspective = !1, r.textureAlphaPremultiplied = !1, r.treeRendering = !1, r.hasColorTexture = !1, r.usePBR = !1, r.hasMetalnessAndRoughnessTexture = !1, r.hasEmissionTexture = !1, r.hasOcclusionTexture = !1, r.hasNormalTexture = !1, r.instanced = !1, r.instancedColor = !1, r.instancedDoublePrecision = !1, r.vertexTangents = !1, r.normalsTypeDerivate = !1, r;
}
return t(r, e), o([p.parameter({
count: 6
})], r.prototype, "output", void 0), o([p.parameter({
count: 4
})], r.prototype, "alphaDiscardMode", void 0), o([p.parameter({
count: 3
})], r.prototype, "doubleSidedMode", void 0), o([p.parameter()], r.prototype, "vertexColors", void 0), o([p.parameter()], r.prototype, "offsetBackfaces", void 0), o([p.parameter()], r.prototype, "symbolColors", void 0), o([p.parameter()], r.prototype, "vvSize", void 0), o([p.parameter()], r.prototype, "vvColor", void 0), o([p.parameter()], r.prototype, "verticalOffset", void 0), o([p.parameter()], r.prototype, "receiveShadows", void 0), o([p.parameter()], r.prototype, "slice", void 0), o([p.parameter()], r.prototype, "sliceHighlightDisabled", void 0), o([p.parameter()], r.prototype, "receiveAmbientOcclusion", void 0), o([p.parameter()], r.prototype, "screenSizePerspective", void 0), o([p.parameter()], r.prototype, "textureAlphaPremultiplied", void 0), o([p.parameter()], r.prototype, "treeRendering", void 0), o([p.parameter()], r.prototype, "hasColorTexture", void 0), o([p.parameter()], r.prototype, "usePBR", void 0), o([p.parameter()], r.prototype, "hasMetalnessAndRoughnessTexture", void 0), o([p.parameter()], r.prototype, "hasEmissionTexture", void 0), o([p.parameter()], r.prototype, "hasOcclusionTexture", void 0), o([p.parameter()], r.prototype, "hasNormalTexture", void 0), o([p.parameter()], r.prototype, "instanced", void 0), o([p.parameter()], r.prototype, "instancedColor", void 0), o([p.parameter()], r.prototype, "instancedDoublePrecision", void 0), o([p.parameter()], r.prototype, "vertexTangents", void 0), o([p.parameter()], r.prototype, "normalsTypeDerivate", void 0), r;
}(p.ShaderTechniqueConfiguration);
r.DefaultMaterialTechniqueConfiguration = f;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/shaders/LaserLinePrograms.js":
/*!***************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/shaders/LaserLinePrograms.js ***!
\***************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineShadersLaserLineProgramsJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../lib/DefaultVertexAttributeLocations */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/DefaultVertexAttributeLocations.js"), __webpack_require__(
/*! ./sources/resolver */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/shaders/sources/resolver.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, r, t, a) {
Object.defineProperty(r, "__esModule", {
value: !0
}), r.program = {
name: "laserline",
shaders: {
vertexShader: a.resolveIncludes("util/quad.vert"),
fragmentShader: a.resolveIncludes("renderer/laserLine/laserLine.frag")
},
attributes: t.Default3D
};
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/shaders/RibbonLine.glsl.js":
/*!*************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/shaders/RibbonLine.glsl.js ***!
\*************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineShadersRibbonLineGlslJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../core/tsSupport/makeTemplateObjectHelper */
"./node_modules/arcgis-js-api/core/tsSupport/makeTemplateObjectHelper.js"), __webpack_require__(
/*! ../core/shaderLibrary/Slice.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/Slice.glsl.js"), __webpack_require__(
/*! ../core/shaderLibrary/attributes/RibbonVertexPosition.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/attributes/RibbonVertexPosition.glsl.js"), __webpack_require__(
/*! ../core/shaderLibrary/shading/LineStipple.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/LineStipple.glsl.js"), __webpack_require__(
/*! ../core/shaderLibrary/shading/PiUtils.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/PiUtils.glsl.js"), __webpack_require__(
/*! ../core/shaderModules/interfaces */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/interfaces.js"), __webpack_require__(
/*! ../core/shaderModules/ShaderBuilder */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/ShaderBuilder.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, n, t, i, o, r, s, l, a) {
function p(e) {
var n = new a.ShaderBuilder();
return n.extensions.add("GL_OES_standard_derivatives"), n.include(s.PiUtils), n.include(o.RibbonVertexPosition, e), n.include(r.LineStipple, e), n.vertex.uniforms.add("proj", "mat4").add("view", "mat4").add("model", "mat4").add("nearPlane", "float").add("pixelRatio", "float").add("miterLimit", "float").add("screenSize", "vec2"), n.attributes.add("position", "vec3"), n.attributes.add("subdivisionFactor", "float"), n.attributes.add("uv0", "vec2"), n.attributes.add("auxpos1", "vec3"), n.attributes.add("auxpos2", "vec3"), n.varyings.add("vColor", "vec4"), n.varyings.add("vpos", "vec3"), n.vertex.code.add(l.glsl(c || (c = t(["\n\t\t#define PERPENDICULAR(v) vec2(v.y, -v.x);\n\t\t#define ISOUTSIDE (left.x * right.y - left.y * right.x)*uv0.y > 0.0\n\n\t\tfloat interp(float ncp, vec4 a, vec4 b) {\n\t\t\treturn (-ncp - a.z) / (b.z - a.z);\n\t\t}\n\n\t\tvec2 rotate(vec2 v, float a) {\n\t\t\tfloat s = sin(a);\n\t\t\tfloat c = cos(a);\n\t\t\tmat2 m = mat2(c, -s, s, c);\n\t\t\treturn m * v;\n\t\t}\n"], ["\n\t\t#define PERPENDICULAR(v) vec2(v.y, -v.x);\n\t\t#define ISOUTSIDE (left.x * right.y - left.y * right.x)*uv0.y > 0.0\n\n\t\tfloat interp(float ncp, vec4 a, vec4 b) {\n\t\t\treturn (-ncp - a.z) / (b.z - a.z);\n\t\t}\n\n\t\tvec2 rotate(vec2 v, float a) {\n\t\t\tfloat s = sin(a);\n\t\t\tfloat c = cos(a);\n\t\t\tmat2 m = mat2(c, -s, s, c);\n\t\t\treturn m * v;\n\t\t}\n"])))), n.vertex.code.add(l.glsl(d || (d = t(["\n vec4 projectAndScale(vec4 pos) {\n vec4 posNdc = proj * pos;\n\n // Note that posNdc is in -1:1, scaling by screenSize converts this to a coordinate system\n // that is twice scaled (going from -size:size).\n posNdc.xy *= screenSize / posNdc.w;\n return posNdc;\n }\n"], ["\n vec4 projectAndScale(vec4 pos) {\n vec4 posNdc = proj * pos;\n\n // Note that posNdc is in -1:1, scaling by screenSize converts this to a coordinate system\n // that is twice scaled (going from -size:size).\n posNdc.xy *= screenSize / posNdc.w;\n return posNdc;\n }\n"])))), n.vertex.code.add(l.glsl(v || (v = t(["\n void clipAndTransform(inout vec4 pos, inout vec4 prev, inout vec4 next, in bool isStartVertex) {\n float vnp = nearPlane*0.99;\n\n //current pos behind ncp --\x3e we need to clip\n if(pos.z > -nearPlane) {\n if (!isStartVertex) {\n //previous in front of ncp\n if(prev.z < -nearPlane) {\n pos = mix(prev, pos, interp(vnp, prev, pos));\n next = pos;\n } else {\n pos = vec4(0.0, 0.0, 0.0, 1.0);\n }\n }\n //next in front of ncp\n if(isStartVertex) {\n if(next.z < -nearPlane) {\n pos = mix(pos, next, interp(vnp, pos, next));\n prev = pos;\n } else {\n pos = vec4(0.0, 0.0, 0.0, 1.0);\n }\n }\n } else {\n //current position visible\n //previous behind ncp\n if (prev.z > -nearPlane) {\n prev = mix(pos, prev, interp(vnp, pos, prev));\n }\n //next behind ncp\n if (next.z > -nearPlane) {\n next = mix(next, pos, interp(vnp, next, pos));\n }\n }\n\n pos = projectAndScale(pos);\n next = projectAndScale(next);\n prev = projectAndScale(prev);\n }\n"], ["\n void clipAndTransform(inout vec4 pos, inout vec4 prev, inout vec4 next, in bool isStartVertex) {\n float vnp = nearPlane*0.99;\n\n //current pos behind ncp --\x3e we need to clip\n if(pos.z > -nearPlane) {\n if (!isStartVertex) {\n //previous in front of ncp\n if(prev.z < -nearPlane) {\n pos = mix(prev, pos, interp(vnp, prev, pos));\n next = pos;\n } else {\n pos = vec4(0.0, 0.0, 0.0, 1.0);\n }\n }\n //next in front of ncp\n if(isStartVertex) {\n if(next.z < -nearPlane) {\n pos = mix(pos, next, interp(vnp, pos, next));\n prev = pos;\n } else {\n pos = vec4(0.0, 0.0, 0.0, 1.0);\n }\n }\n } else {\n //current position visible\n //previous behind ncp\n if (prev.z > -nearPlane) {\n prev = mix(pos, prev, interp(vnp, pos, prev));\n }\n //next behind ncp\n if (next.z > -nearPlane) {\n next = mix(next, pos, interp(vnp, next, pos));\n }\n }\n\n pos = projectAndScale(pos);\n next = projectAndScale(next);\n prev = projectAndScale(prev);\n }\n"])))), n.vertex.code.add(l.glsl(m || (m = t(["\n void main(void) {\n float coverage = 1.0;\n vpos = (model * vec4(position, 1.0)).xyz;\n\n // Check for special value of uv0.y which is used by the Renderer when graphics\n // are removed before the VBO is recompacted. If this is the case, then we just\n // project outside of clip space.\n if (uv0.y == 0.0) {\n // Project out of clip space\n gl_Position = vec4(1e038, 1e038, 1e038, 1.0);\n }\n else {\n bool isStartVertex = abs(abs(uv0.y)-3.0) == 1.0;\n bool isJoin = abs(uv0.y)-3.0 < 0.0;\n\n float lineWidth = getSize() * pixelRatio;\n\n // convert sub-pixel coverage to alpha\n if( lineWidth<1.0 ){\n coverage = lineWidth;\n lineWidth = 1.0;\n }\n\n vec4 pos = view * vec4((model * vec4(position.xyz, 1.0)).xyz, 1.0);\n vec4 prev = view * vec4((model * vec4(auxpos1.xyz, 1.0)).xyz, 1.0);\n vec4 next = view * vec4((model * vec4(auxpos2.xyz, 1.0)).xyz, 1.0);\n\n clipAndTransform(pos, prev, next, isStartVertex);\n\n vec2 left = (pos.xy - prev.xy);\n vec2 right = (next.xy - pos.xy);\n\n float leftLen = length(left);\n float rightLen = length(right);\n "], ["\n void main(void) {\n float coverage = 1.0;\n vpos = (model * vec4(position, 1.0)).xyz;\n\n // Check for special value of uv0.y which is used by the Renderer when graphics\n // are removed before the VBO is recompacted. If this is the case, then we just\n // project outside of clip space.\n if (uv0.y == 0.0) {\n // Project out of clip space\n gl_Position = vec4(1e038, 1e038, 1e038, 1.0);\n }\n else {\n bool isStartVertex = abs(abs(uv0.y)-3.0) == 1.0;\n bool isJoin = abs(uv0.y)-3.0 < 0.0;\n\n float lineWidth = getSize() * pixelRatio;\n\n // convert sub-pixel coverage to alpha\n if( lineWidth<1.0 ){\n coverage = lineWidth;\n lineWidth = 1.0;\n }\n\n vec4 pos = view * vec4((model * vec4(position.xyz, 1.0)).xyz, 1.0);\n vec4 prev = view * vec4((model * vec4(auxpos1.xyz, 1.0)).xyz, 1.0);\n vec4 next = view * vec4((model * vec4(auxpos2.xyz, 1.0)).xyz, 1.0);\n\n clipAndTransform(pos, prev, next, isStartVertex);\n\n vec2 left = (pos.xy - prev.xy);\n vec2 right = (next.xy - pos.xy);\n\n float leftLen = length(left);\n float rightLen = length(right);\n "])))), e.stippleEnabled && n.vertex.code.add(l.glsl(f || (f = t(["\n // uv0.x is either 0 or 1, depending on whether this is considered the start of a line segment\n // or the end. If start, then use pos->next, otherwise use prev->pos to define the line segment\n // vector\n vec4 stippleSegmentInfo = mix(vec4(pos.xy, right), vec4(prev.xy, left), uv0.x);\n vec2 stippleSegmentOrigin = stippleSegmentInfo.xy;\n\n // Scale s.t. it's in units of stipple pattern size.\n vec2 stippleSegmentDirection = stippleSegmentInfo.zw;\n "], ["\n // uv0.x is either 0 or 1, depending on whether this is considered the start of a line segment\n // or the end. If start, then use pos->next, otherwise use prev->pos to define the line segment\n // vector\n vec4 stippleSegmentInfo = mix(vec4(pos.xy, right), vec4(prev.xy, left), uv0.x);\n vec2 stippleSegmentOrigin = stippleSegmentInfo.xy;\n\n // Scale s.t. it's in units of stipple pattern size.\n vec2 stippleSegmentDirection = stippleSegmentInfo.zw;\n "])))), n.vertex.code.add(l.glsl(h || (h = t(['\n left = (leftLen > 0.001) ? left/leftLen : vec2(0.0, 0.0);\n right = (rightLen > 0.001) ? right/rightLen : vec2(0.0, 0.0);\n\n vec2 capDisplacementDir = vec2(0, 0);\n vec2 joinDisplacementDir = vec2(0, 0);\n float displacementLen = lineWidth;\n\n if (isJoin) {\n\n // JOIN handling ---------------------------------------------------\n // determine if vertex is on the "outside or "inside" of the join\n bool isOutside = ISOUTSIDE;\n\n // compute miter join position first\n joinDisplacementDir = normalize(left + right);\n joinDisplacementDir = PERPENDICULAR(joinDisplacementDir);\n\n // computer miter stretch\n if (leftLen > 0.001 && rightLen > 0.001) {\n float nDotSeg = dot(joinDisplacementDir, left);\n displacementLen /= length(nDotSeg*left - joinDisplacementDir);\n\n // limit displacement of inner vertices\n if (!isOutside) {\n displacementLen = min(displacementLen, min(leftLen, rightLen)/abs(nDotSeg));\n }\n }\n\n if (isOutside && (displacementLen > miterLimit*lineWidth)) {\n '], ['\n left = (leftLen > 0.001) ? left/leftLen : vec2(0.0, 0.0);\n right = (rightLen > 0.001) ? right/rightLen : vec2(0.0, 0.0);\n\n vec2 capDisplacementDir = vec2(0, 0);\n vec2 joinDisplacementDir = vec2(0, 0);\n float displacementLen = lineWidth;\n\n if (isJoin) {\n\n // JOIN handling ---------------------------------------------------\n // determine if vertex is on the "outside or "inside" of the join\n bool isOutside = ISOUTSIDE;\n\n // compute miter join position first\n joinDisplacementDir = normalize(left + right);\n joinDisplacementDir = PERPENDICULAR(joinDisplacementDir);\n\n // computer miter stretch\n if (leftLen > 0.001 && rightLen > 0.001) {\n float nDotSeg = dot(joinDisplacementDir, left);\n displacementLen /= length(nDotSeg*left - joinDisplacementDir);\n\n // limit displacement of inner vertices\n if (!isOutside) {\n displacementLen = min(displacementLen, min(leftLen, rightLen)/abs(nDotSeg));\n }\n }\n\n if (isOutside && (displacementLen > miterLimit*lineWidth)) {\n '])))), e.roundJoins ? n.vertex.code.add(l.glsl(g || (g = t(["\n vec2 startDir;\n vec2 endDir;\n\n if (leftLen < 0.001) {\n startDir = right;\n }\n else{\n startDir = left;\n }\n startDir = normalize(startDir);\n startDir = PERPENDICULAR(startDir);\n\n if (rightLen < 0.001) {\n endDir = left;\n }\n else{\n endDir = right;\n }\n endDir = normalize(endDir);\n endDir = PERPENDICULAR(endDir);\n\n float rotationAngle = acos(clamp(dot(startDir, endDir), -1.0, 1.0));\n joinDisplacementDir = rotate(startDir, -sign(uv0.y) * subdivisionFactor * rotationAngle);\n "], ["\n vec2 startDir;\n vec2 endDir;\n\n if (leftLen < 0.001) {\n startDir = right;\n }\n else{\n startDir = left;\n }\n startDir = normalize(startDir);\n startDir = PERPENDICULAR(startDir);\n\n if (rightLen < 0.001) {\n endDir = left;\n }\n else{\n endDir = right;\n }\n endDir = normalize(endDir);\n endDir = PERPENDICULAR(endDir);\n\n float rotationAngle = acos(clamp(dot(startDir, endDir), -1.0, 1.0));\n joinDisplacementDir = rotate(startDir, -sign(uv0.y) * subdivisionFactor * rotationAngle);\n "])))) : n.vertex.code.add(l.glsl(D || (D = t(["\n // convert to bevel join if miterLimit is exceeded\n if (leftLen < 0.001) {\n joinDisplacementDir = right;\n }\n else if (rightLen < 0.001) {\n joinDisplacementDir = left;\n }\n else {\n joinDisplacementDir = isStartVertex ? right : left;\n }\n joinDisplacementDir = normalize(joinDisplacementDir);\n joinDisplacementDir = PERPENDICULAR(joinDisplacementDir);\n "], ["\n // convert to bevel join if miterLimit is exceeded\n if (leftLen < 0.001) {\n joinDisplacementDir = right;\n }\n else if (rightLen < 0.001) {\n joinDisplacementDir = left;\n }\n else {\n joinDisplacementDir = isStartVertex ? right : left;\n }\n joinDisplacementDir = normalize(joinDisplacementDir);\n joinDisplacementDir = PERPENDICULAR(joinDisplacementDir);\n "])))), n.vertex.code.add(l.glsl(x || (x = t(["\n displacementLen = lineWidth;\n }\n } else {\n // CAP handling ---------------------------------------------------\n if (leftLen < 0.001) {\n joinDisplacementDir = right;\n }\n else if (rightLen < 0.001) {\n joinDisplacementDir = left;\n }\n else {\n joinDisplacementDir = isStartVertex ? right : left;\n }\n joinDisplacementDir = normalize(joinDisplacementDir);\n joinDisplacementDir = PERPENDICULAR(joinDisplacementDir);\n displacementLen = lineWidth;\n\n capDisplacementDir = isStartVertex ? -right : left;\n "], ["\n displacementLen = lineWidth;\n }\n } else {\n // CAP handling ---------------------------------------------------\n if (leftLen < 0.001) {\n joinDisplacementDir = right;\n }\n else if (rightLen < 0.001) {\n joinDisplacementDir = left;\n }\n else {\n joinDisplacementDir = isStartVertex ? right : left;\n }\n joinDisplacementDir = normalize(joinDisplacementDir);\n joinDisplacementDir = PERPENDICULAR(joinDisplacementDir);\n displacementLen = lineWidth;\n\n capDisplacementDir = isStartVertex ? -right : left;\n "])))), e.roundCaps ? n.vertex.code.add(l.glsl(u || (u = t(["\n float angle = subdivisionFactor*PI*0.5;\n joinDisplacementDir *= cos(angle);\n capDisplacementDir *= sin(angle);\n "], ["\n float angle = subdivisionFactor*PI*0.5;\n joinDisplacementDir *= cos(angle);\n capDisplacementDir *= sin(angle);\n "])))) : n.vertex.code.add(l.glsl(S || (S = t(["\n capDisplacementDir *= subdivisionFactor;\n "], ["\n capDisplacementDir *= subdivisionFactor;\n "])))), n.vertex.code.add(l.glsl(L || (L = t(["\n }\n\n pos.xy += joinDisplacementDir * sign(uv0.y) * displacementLen;\n pos.xy += capDisplacementDir * displacementLen;\n "], ["\n }\n\n pos.xy += joinDisplacementDir * sign(uv0.y) * displacementLen;\n pos.xy += capDisplacementDir * displacementLen;\n "])))), e.stippleEnabled && (n.vertex.code.add(l.glsl(b || (b = t(["\n {\n // Compute the stipple pattern UV coordinate from the actual position, based on the origin\n // and direction of the line segment on which the stipple pattern is based.\n\n // Project the vector from the origin of the segment to the vertex onto the line segment.\n // Note the 0.5 factor due to projected positions being at twice the screen size scale (see projectAndScale)\n vec2 posVec = pos.xy - stippleSegmentOrigin;\n\n float stippleSegmentDirectionLength = length(stippleSegmentDirection);\n "], ["\n {\n // Compute the stipple pattern UV coordinate from the actual position, based on the origin\n // and direction of the line segment on which the stipple pattern is based.\n\n // Project the vector from the origin of the segment to the vertex onto the line segment.\n // Note the 0.5 factor due to projected positions being at twice the screen size scale (see projectAndScale)\n vec2 posVec = pos.xy - stippleSegmentOrigin;\n\n float stippleSegmentDirectionLength = length(stippleSegmentDirection);\n "])))), e.stippleIntegerRepeatsEnabled && n.vertex.code.add(l.glsl(P || (P = t(["\n float numberOfPatternRepeats = stippleSegmentDirectionLength * 0.5 * stipplePatternPixelSizeInv;\n float roundedNumberOfPatternRepeats = max(1.0, floor(numberOfPatternRepeats + 0.5));\n stipplePatternUvMax = roundedNumberOfPatternRepeats;\n "], ["\n float numberOfPatternRepeats = stippleSegmentDirectionLength * 0.5 * stipplePatternPixelSizeInv;\n float roundedNumberOfPatternRepeats = max(1.0, floor(numberOfPatternRepeats + 0.5));\n stipplePatternUvMax = roundedNumberOfPatternRepeats;\n "])))), n.vertex.code.add(l.glsl(y || (y = t(["\n if (stippleSegmentDirectionLength >= 0.001) {\n // Project the vertex position onto the line segment.\n float projectedLength = dot(stippleSegmentDirection, posVec) / stippleSegmentDirectionLength * 0.5;\n ", "\n stipplePatternUv = projectedLength * wholeNumberOfRepeatsScale * stipplePatternPixelSizeInv * pos.w;\n } else {\n stipplePatternUv = 1.0;\n }\n }\n "], ["\n if (stippleSegmentDirectionLength >= 0.001) {\n // Project the vertex position onto the line segment.\n float projectedLength = dot(stippleSegmentDirection, posVec) / stippleSegmentDirectionLength * 0.5;\n ", "\n stipplePatternUv = projectedLength * wholeNumberOfRepeatsScale * stipplePatternPixelSizeInv * pos.w;\n } else {\n stipplePatternUv = 1.0;\n }\n }\n "])), e.stippleIntegerRepeatsEnabled ? "float wholeNumberOfRepeatsScale = roundedNumberOfPatternRepeats / numberOfPatternRepeats;" : "float wholeNumberOfRepeatsScale = 1.0;"))), n.vertex.code.add(l.glsl(j || (j = t(["\n // Convert back into NDC\n pos.xy = pos.xy / screenSize * pos.w;\n\n vColor = getColor();\n vColor.a *= coverage;\n\n gl_Position = pos;\n }\n }\n "], ["\n // Convert back into NDC\n pos.xy = pos.xy / screenSize * pos.w;\n\n vColor = getColor();\n vColor.a *= coverage;\n\n gl_Position = pos;\n }\n }\n "])))), n.include(i.Slice, e), 0 === e.output && (n.fragment.uniforms.add("symbolColor", "vec4"), n.fragment.code.add(l.glsl(z || (z = t(["\n void main() {\n discardBySlice(vpos);\n float stippleAlpha = getStippleAlpha();\n discardByStippleAlpha(stippleAlpha, STIPPLE_ALPHA_COLOR_DISCARD);\n vec4 color = symbolColor * vColor;\n gl_FragColor = highlightSlice(blendStipple(color, stippleAlpha), vpos);\n }\n "], ["\n void main() {\n discardBySlice(vpos);\n float stippleAlpha = getStippleAlpha();\n discardByStippleAlpha(stippleAlpha, STIPPLE_ALPHA_COLOR_DISCARD);\n vec4 color = symbolColor * vColor;\n gl_FragColor = highlightSlice(blendStipple(color, stippleAlpha), vpos);\n }\n "]))))), 4 === e.output && n.fragment.code.add(l.glsl(A || (A = t(["\n void main() {\n discardBySlice(vpos);\n discardByStippleAlpha(getStippleAlpha(), STIPPLE_ALPHA_HIGHLIGHT_DISCARD);\n gl_FragColor = vec4(1.0, 1.0, 1.0, 1.0);\n }\n "], ["\n void main() {\n discardBySlice(vpos);\n discardByStippleAlpha(getStippleAlpha(), STIPPLE_ALPHA_HIGHLIGHT_DISCARD);\n gl_FragColor = vec4(1.0, 1.0, 1.0, 1.0);\n }\n "])))), n;
}
Object.defineProperty(n, "__esModule", {
value: !0
}), n.build = p;
var c, d, v, m, f, h, g, D, x, u, S, L, b, P, y, j, z, A;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/shaders/RibbonLineTechnique.js":
/*!*****************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/shaders/RibbonLineTechnique.js ***!
\*****************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineShadersRibbonLineTechniqueJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../core/tsSupport/extendsHelper */
"./node_modules/arcgis-js-api/core/tsSupport/extendsHelper.js"), __webpack_require__(
/*! ../../../../core/tsSupport/decorateHelper */
"./node_modules/arcgis-js-api/core/tsSupport/decorateHelper.js"), __webpack_require__(
/*! ../../../../core/tsSupport/assignHelper */
"./node_modules/arcgis-js-api/core/tsSupport/assignHelper.js"), __webpack_require__(
/*! ../../../../core/maybe */
"./node_modules/arcgis-js-api/core/maybe.js"), __webpack_require__(
/*! ../../../../core/maybe */
"./node_modules/arcgis-js-api/core/maybe.js"), __webpack_require__(
/*! ../core/shaderLibrary/Slice.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/Slice.glsl.js"), __webpack_require__(
/*! ../core/shaderLibrary/Transform.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/Transform.glsl.js"), __webpack_require__(
/*! ../core/shaderLibrary/output/OutputHighlight.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/output/OutputHighlight.glsl.js"), __webpack_require__(
/*! ../core/shaderLibrary/shading/VisualVariables.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/VisualVariables.glsl.js"), __webpack_require__(
/*! ../core/shaderTechnique/ReloadableShaderModule */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderTechnique/ReloadableShaderModule.js"), __webpack_require__(
/*! ../core/shaderTechnique/ShaderTechnique */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderTechnique/ShaderTechnique.js"), __webpack_require__(
/*! ../core/shaderTechnique/ShaderTechniqueConfiguration */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderTechnique/ShaderTechniqueConfiguration.js"), __webpack_require__(
/*! ./RibbonLine.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/shaders/RibbonLine.glsl.js"), __webpack_require__(
/*! ../../../webgl/Program */
"./node_modules/arcgis-js-api/views/webgl/Program.js"), __webpack_require__(
/*! ../../../webgl/renderState */
"./node_modules/arcgis-js-api/views/webgl/renderState.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, t, i, r, o, p, a, n, s, l, u, d, h, f, c, b, g) {
Object.defineProperty(t, "__esModule", {
value: !0
}), t.RibbonVertexAttributeConstants = {
POSITION: "position",
SUBDIVISIONFACTOR: "subdivisionFactor",
UV0: "uv0",
AUXPOS1: "auxpos1",
AUXPOS2: "auxpos2",
SUBDIVISIONS: "subdivisions",
COLOR: "color",
COLORFEATUREATTRIBUTE: "colorFeatureAttribute",
SIZE: "size",
SIZEFEATUREATTRIBUTE: "sizeFeatureAttribute",
OPACITYFEATUREATTRIBUTE: "opacityFeatureAttribute"
}, t.ribbonVertexAttributeLocations = {
position: 0,
subdivisionFactor: 1,
uv0: 2,
auxpos1: 3,
auxpos2: 4,
size: 6,
sizeFeatureAttribute: 6,
color: 5,
colorFeatureAttribute: 5,
opacityFeatureAttribute: 7
};
var m = function (r) {
function o(e, t) {
var i = r.call(this, e, t) || this;
return i.stipplePattern = null, i.stippleTextureBind = null, i.stippleTextureRepository = e.stippleTextureRepository, i;
}
return i(o, r), o.prototype.initializeProgram = function (e) {
var i = o.shader.get(),
r = this.configuration,
p = i.build({
output: r.output,
slicePlaneEnabled: r.slicePlaneEnabled,
sliceHighlightDisabled: r.sliceHighlightDisabled,
stippleEnabled: r.stippleEnabled,
stippleOffColorEnabled: r.stippleOffColorEnabled,
stippleUVMaxEnabled: r.stippleIntegerRepeatsEnabled,
stippleIntegerRepeatsEnabled: r.stippleIntegerRepeatsEnabled,
roundCaps: r.roundCaps,
roundJoins: r.roundJoins,
vvColor: r.vvColor,
vvSize: r.vvSize,
vvOpacity: r.vvOpacity
});
return new b(e.rctx, p.generateSource("vertex"), p.generateSource("fragment"), t.ribbonVertexAttributeLocations);
}, o.prototype.dispose = function () {
r.prototype.dispose.call(this), this.stippleTextureRepository.release(this.stipplePattern), this.stipplePattern = null, this.stippleTextureBind = null;
}, o.prototype.bindPass = function (e, t, i) {
if (4 === this.configuration.output && l.OutputHighlight.bindOutputHighlight(e, this.program, i), this.program.setUniform1f("symbolLineWidth", t.width), this.program.setUniform4fv("symbolColor", t.color), this.program.setUniform1f("miterLimit", "miter" !== t.join ? 0 : t.miterLimit), this.program.setUniform1f("nearPlane", i.nearFar[0]), this.program.setUniform1f("pixelRatio", i.pixelRatio), this.program.setUniform2fv("screenSize", [i.viewport[2], i.viewport[3]]), u.VisualVariables.bindUniformsWithOpacity(this.program, t), this.stipplePattern !== t.stipplePattern) {
var r = t.stipplePattern;
this.stippleTextureBind = this.stippleTextureRepository.swap(this.stipplePattern, r), this.stipplePattern = r;
}
if (this.configuration.stippleEnabled) {
var o = a.isSome(this.stippleTextureBind) ? this.stippleTextureBind(e, 0) * i.pixelRatio : 1;
if (this.program.setUniform1i("stipplePatternTexture", 0), this.program.setUniform1f("stipplePatternPixelSizeInv", 1 / o), this.configuration.stippleOffColorEnabled) {
var n = p.expect(t.stippleOffColor);
this.program.setUniform4f("stippleOffColor", n[0], n[1], n[2], n.length > 3 ? n[3] : 1);
}
}
}, o.prototype.bindDraw = function (e) {
s.Transform.bindUniforms(this.program, e), n.Slice.bindUniformsWithOrigin(this.program, this.configuration, e);
}, o.prototype.bindInstance = function (e) {
this.program.setUniformMatrix4fv("model", e.transformation);
}, o.prototype.initializePipeline = function () {
var e = this.configuration;
return 0 === e.output ? g.makePipelineState({
blending: g.separateBlendingParams(770, 1, 771, 771),
polygonOffset: e.polygonOffset && v,
depthTest: {
func: 513
},
depthWrite: !e.transparent && e.writeDepth && g.defaultDepthWriteParams,
colorWrite: g.defaultColorWriteParams
}) : g.makePipelineState({
polygonOffset: e.polygonOffset && v,
depthTest: {
func: 513
},
depthWrite: !e.transparent && e.writeDepth && g.defaultDepthWriteParams,
colorWrite: g.defaultColorWriteParams
});
}, o.prototype.bindPipelineState = function (e) {
e.setPipelineState(this.pipeline);
}, o.shader = new d.ReloadableShaderModule(c, "./RibbonLine.glsl", e), o;
}(h.ShaderTechnique);
t.RibbonLineTechnique = m;
var v = {
factor: 0,
units: -4
},
y = function (e) {
function t() {
var t = null !== e && e.apply(this, arguments) || this;
return t.output = 0, t.slicePlaneEnabled = !1, t.sliceHighlightDisabled = !1, t.vertexColors = !1, t.transparent = !1, t.polygonOffset = !1, t.writeDepth = !1, t.stippleEnabled = !1, t.stippleOffColorEnabled = !1, t.stippleIntegerRepeatsEnabled = !1, t.roundCaps = !1, t.roundJoins = !1, t.vvSize = !1, t.vvColor = !1, t.vvOpacity = !1, t;
}
return i(t, e), r([f.parameter({
count: 6
})], t.prototype, "output", void 0), r([f.parameter()], t.prototype, "slicePlaneEnabled", void 0), r([f.parameter()], t.prototype, "sliceHighlightDisabled", void 0), r([f.parameter()], t.prototype, "vertexColors", void 0), r([f.parameter()], t.prototype, "transparent", void 0), r([f.parameter()], t.prototype, "polygonOffset", void 0), r([f.parameter()], t.prototype, "writeDepth", void 0), r([f.parameter()], t.prototype, "stippleEnabled", void 0), r([f.parameter()], t.prototype, "stippleOffColorEnabled", void 0), r([f.parameter()], t.prototype, "stippleIntegerRepeatsEnabled", void 0), r([f.parameter()], t.prototype, "roundCaps", void 0), r([f.parameter()], t.prototype, "roundJoins", void 0), r([f.parameter()], t.prototype, "vvSize", void 0), r([f.parameter()], t.prototype, "vvColor", void 0), r([f.parameter()], t.prototype, "vvOpacity", void 0), t;
}(f.ShaderTechniqueConfiguration);
t.RibbonLineTechniqueConfiguration = y;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/shaders/WaterSurface.glsl.js":
/*!***************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/shaders/WaterSurface.glsl.js ***!
\***************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineShadersWaterSurfaceGlslJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../../../core/tsSupport/makeTemplateObjectHelper */
"./node_modules/arcgis-js-api/core/tsSupport/makeTemplateObjectHelper.js"), __webpack_require__(
/*! ../core/shaderLibrary/ForwardLinearDepth.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/ForwardLinearDepth.glsl.js"), __webpack_require__(
/*! ../core/shaderLibrary/Slice.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/Slice.glsl.js"), __webpack_require__(
/*! ../core/shaderLibrary/Transform.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/Transform.glsl.js"), __webpack_require__(
/*! ../core/shaderLibrary/shading/NormalUtils.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/NormalUtils.glsl.js"), __webpack_require__(
/*! ../core/shaderLibrary/shading/ReadShadowMap.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/ReadShadowMap.glsl.js"), __webpack_require__(
/*! ../core/shaderLibrary/shading/Water.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/Water.glsl.js"), __webpack_require__(
/*! ../core/shaderLibrary/shading/WaterDistortion.glsl */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderLibrary/shading/WaterDistortion.glsl.js"), __webpack_require__(
/*! ../core/shaderModules/interfaces */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/interfaces.js"), __webpack_require__(
/*! ../core/shaderModules/ShaderBuilder */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/core/shaderModules/ShaderBuilder.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (n, a, e, o, r, i, t, l, d, v, s, c) {
function g(n) {
var a = new c.ShaderBuilder();
return a.include(i.Transform, {
linearDepth: !1
}), a.attributes.add("position", "vec3"), a.attributes.add("uv0", "vec2"), a.vertex.uniforms.add("proj", "mat4").add("view", "mat4").add("model", "mat4").add("localOrigin", "vec3"), 0 === n.output && (a.include(t.NormalUtils, n), a.include(o.ForwardLinearDepth, n), a.varyings.add("vuv", "vec2"), a.varyings.add("vpos", "vec3"), a.varyings.add("vnormal", "vec3"), a.varyings.add("vtbnMatrix", "mat3"), a.vertex.code.add(s.glsl(m || (m = e(["\n void main(void) {\n vuv = uv0;\n vpos = (model * vec4(position, 1.0)).xyz;\n\n vnormal = getLocalUp(vpos, localOrigin);\n vtbnMatrix = getTBNMatrix(vnormal);\n\n gl_Position = transformPosition(proj, view, vpos);\n forwardLinearDepth();\n }\n "], ["\n void main(void) {\n vuv = uv0;\n vpos = (model * vec4(position, 1.0)).xyz;\n\n vnormal = getLocalUp(vpos, localOrigin);\n vtbnMatrix = getTBNMatrix(vnormal);\n\n gl_Position = transformPosition(proj, view, vpos);\n forwardLinearDepth();\n }\n "])))), a.include(v.WaterDistortion, n), a.include(r.Slice, n), n.receiveShadows && a.include(l.ReadShadowMap, n), a.include(d.Water, n), a.fragment.uniforms.add("waterColor", "vec4").add("lightingMainDirection", "vec3").add("lightingMainIntensity", "vec3").add("camPos", "vec3").add("timeElapsed", "float"), a.fragment.code.add(s.glsl(p || (p = e(["\n void main() {\n discardBySlice(vpos);\n vec3 localUp = vnormal;\n // the created normal is in tangent space\n vec3 tangentNormal = getSurfaceNormal(vuv, timeElapsed);\n\n // we rotate the normal according to the tangent-bitangent-normal-Matrix\n vec3 n = normalize(vtbnMatrix * tangentNormal);\n vec3 v = -normalize(vpos - camPos);\n vec3 l = normalize(-lightingMainDirection);\n "], ["\n void main() {\n discardBySlice(vpos);\n vec3 localUp = vnormal;\n // the created normal is in tangent space\n vec3 tangentNormal = getSurfaceNormal(vuv, timeElapsed);\n\n // we rotate the normal according to the tangent-bitangent-normal-Matrix\n vec3 n = normalize(vtbnMatrix * tangentNormal);\n vec3 v = -normalize(vpos - camPos);\n vec3 l = normalize(-lightingMainDirection);\n "])))), n.receiveShadows ? a.fragment.code.add(s.glsl(h || (h = e(["\n float shadow = 1.0 - readShadowMap(vpos, linearDepth);\n "], ["\n float shadow = 1.0 - readShadowMap(vpos, linearDepth);\n "])))) : a.fragment.code.add(s.glsl(u || (u = e(["\n float shadow = 1.0;\n "], ["\n float shadow = 1.0;\n "])))), a.fragment.code.add(s.glsl(f || (f = e(["\n vec4 final = vec4(getSeaColor(n, v, l, waterColor.rgb, lightingMainIntensity, localUp, shadow), waterColor.w);\n\n // gamma correction\n gl_FragColor = delinearizeGamma(final);\n gl_FragColor = highlightSlice(gl_FragColor, vpos);\n }\n "], ["\n vec4 final = vec4(getSeaColor(n, v, l, waterColor.rgb, lightingMainIntensity, localUp, shadow), waterColor.w);\n\n // gamma correction\n gl_FragColor = delinearizeGamma(final);\n gl_FragColor = highlightSlice(gl_FragColor, vpos);\n }\n "]))))), 2 === n.output && (a.include(t.NormalUtils, n), a.include(v.WaterDistortion, n), a.include(r.Slice, n), a.varyings.add("vpos", "vec3"), a.varyings.add("vuv", "vec2"), a.vertex.code.add(s.glsl(w || (w = e(["\n void main(void) {\n vuv = uv0;\n vpos = (model * vec4(position, 1.0)).xyz;\n gl_Position = transformPosition(proj, view, vpos);\n }\n "], ["\n void main(void) {\n vuv = uv0;\n vpos = (model * vec4(position, 1.0)).xyz;\n gl_Position = transformPosition(proj, view, vpos);\n }\n "])))), a.fragment.uniforms.add("timeElapsed", "float"), a.fragment.code.add(s.glsl(y || (y = e(["\n void main() {\n discardBySlice(vpos);\n // the created normal is in tangent space\n vec3 tangentNormal = getSurfaceNormal(vuv, timeElapsed);\n tangentNormal = normalize(tangentNormal);\n gl_FragColor = vec4((tangentNormal + vec3(1.0)) * 0.5, 0.0);\n }\n "], ["\n void main() {\n discardBySlice(vpos);\n // the created normal is in tangent space\n vec3 tangentNormal = getSurfaceNormal(vuv, timeElapsed);\n tangentNormal = normalize(tangentNormal);\n gl_FragColor = vec4((tangentNormal + vec3(1.0)) * 0.5, 0.0);\n }\n "]))))), 5 === n.output && (a.include(t.NormalUtils, n), a.varyings.add("vpos", "vec3"), a.vertex.code.add(s.glsl(S || (S = e(["\n void main(void) {\n vpos = (model * vec4(position, 1.0)).xyz;\n gl_Position = transformPosition(proj, view, vpos);\n }\n "], ["\n void main(void) {\n vpos = (model * vec4(position, 1.0)).xyz;\n gl_Position = transformPosition(proj, view, vpos);\n }\n "])))), a.fragment.uniforms.add("waterColor", "vec4"), a.fragment.code.add(s.glsl(M || (M = e(["\n void main() {\n gl_FragColor = waterColor;\n }\n "], ["\n void main() {\n gl_FragColor = waterColor;\n }\n "]))))), a;
}
Object.defineProperty(a, "__esModule", {
value: !0
}), a.build = g;
var m, p, h, u, f, w, y, S, M;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/shaders/sources/resolver.js":
/*!**************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/shaders/sources/resolver.js ***!
\**************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineShadersSourcesResolverJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ./shaderRepository */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/shaders/sources/shaderRepository.js"), __webpack_require__(
/*! ../../../../webgl/ShaderCompiler */
"./node_modules/arcgis-js-api/views/webgl/ShaderCompiler.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, r, n, o) {
function t(e) {
var r = n;
return e.split("/").forEach(function (e) {
r && (r = r[e]);
}), r;
}
function u(e) {
return i.resolveIncludes(e);
}
Object.defineProperty(r, "__esModule", {
value: !0
});
var i = new o(t);
r.resolveIncludes = u;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/3d/webgl-engine/shaders/sources/shaderRepository.js":
/*!**********************************************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/3d/webgl-engine/shaders/sources/shaderRepository.js ***!
\**********************************************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViews3dWebglEngineShadersSourcesShaderRepositoryJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, n) {
return {
environment: {
"realisticAtmosphere.frag": "#include <util/fsPrecision.glsl>\n#include <util/encoding.glsl>\n#include <util/color.glsl>\nuniform vec3 lightingMainDirection;\nuniform vec3 invWavelength;\nuniform vec3 invWavelengthScaled;\nconst float krESun = 0.075;\nconst float kmESun = 0.015;\nuniform vec2 radii;\n#define innerRadius radii[0]\n#define outerRadius radii[1]\nuniform vec4 atmosParams1;\nuniform vec4 atmosParams2;\n#define shellScale atmosParams1.x\n#define shellDepth vec2(atmosParams1.y, atmosParams2.y)\n#define scaleOverScaleDepth vec2(atmosParams1.z, atmosParams2.z)\n#define oneOverScaleDepth vec2(atmosParams1.w, atmosParams2.w)\n#ifndef HAZE\nuniform vec3 atmosParams3;\nuniform float innerFadeDistance;\nuniform float altitudeFade;\n#define g atmosParams2.x\n#define gSq atmosParams3.x\n#define miePhaseCoefficients atmosParams3.y\n#define lowerAlphaBlendBound atmosParams3.z\n#endif\nuniform vec3 cameraPosition;\nuniform vec2 nearFar;\nuniform vec4 sphereComp;\n#define cameraHeight sphereComp[0]\n#define cameraHeightSq sphereComp[1]\n#define C sphereComp[2]\n#define CSur sphereComp[3]\n#ifdef HAZE\nconst float exposure = 1.5;\n#else\nconst float exposure = 2.0;\n#endif\n#ifdef HAZE\nuniform sampler2D depthTex;\n#endif\nvarying vec3 eyeDir;\nvarying vec3 worldRay;\nvarying vec2 vtc;\nconst float samples = 5.0;\nconst int maxSamples = 5;\n#ifdef HAZE\n const vec3 oneOverGamma = vec3(1.0);\n#else\n const vec3 oneOverGamma = vec3(0.454545);\n#endif\nvec3 expTM(vec3 inputColor,float _exposure) {\n return pow(1.0 - exp(inputColor * -_exposure), oneOverGamma);\n}\n#ifndef HAZE\nvec3 reinhardTM(vec3 inputColor, float _exposure) {\n vec3 intermediate = inputColor * _exposure;\n intermediate /= ( 1.0 + intermediate );\n return pow(intermediate, oneOverGamma);\n}\n#endif\nfloat scale(float _cos) {\n float x = 1.0 - _cos;\n return exp( -0.00287 + x * ( 0.459 + x * ( 3.83 + x * (-6.80 + x * 5.25 ))));\n}\nvoid main() {\n vec3 worldSpaceRay = normalize(worldRay);\n float B = 2.0 * dot(cameraPosition, worldSpaceRay);\n float det = B * B - 4.0 * C;\n float detSur = B * B - 4.0 * CSur;\n float minRayStart = 0.0;\n#ifndef HAZE\n float surfaceBlend = 0.0;\n vec4 surfaceColor = vec4(0.0);\n if (detSur >= 0.0) {\n float nearSurface = max(0.0, 0.5 *(-B - sqrt(detSur)));\n float farSurface = max(0.0, 0.5 *(-B + sqrt(detSur)));\n if (nearSurface == 0.0) {\n minRayStart = farSurface;\n }\n vec3 vPos = cameraPosition + worldSpaceRay * nearSurface;\n float lightAngle = dot(-lightingMainDirection, normalize(vPos));\n float brightness = max(0.0, (smoothstep(-1.0, 0.8, 2.0 * lightAngle)));\n surfaceColor = vec4(brightness, brightness, brightness, 1.0 - altitudeFade);\n float relDist = (farSurface - nearSurface) / innerFadeDistance;\n if (relDist > 1.0) {\n gl_FragColor = surfaceColor;\n return;\n }\n surfaceBlend = smoothstep(0.0, 1.0, relDist * relDist);\n }\n#endif\n if (det >= 0.0) {\n#ifdef HAZE\n float depthSample = texture2D(depthTex, vtc).r;\n float zNear = nearFar[0];\n float zFar = nearFar[1];\n float zNorm = 2.0 * depthSample - 1.0;\n float linDepth = 2.0 * zNear * zFar /\n (zFar + zNear - zNorm * (zFar - zNear));\n float rayEnd;\n float altitudeAlpha = 1.0;\n if (depthSample < 1.0 && depthSample > 0.0) {\n vec3 cameraSpaceRay = normalize(eyeDir);\n cameraSpaceRay /= cameraSpaceRay.z;\n cameraSpaceRay *= linDepth;\n float cameraSpaceRayLength = length(cameraSpaceRay);\n vec3 world = cameraPosition + worldSpaceRay * cameraSpaceRayLength;\n float worldRadiusSq = dot(world, world);\n float transitionStart = innerRadius + 20000.0;\n float transitionHeight = 25000.0;\n float transitionEnd = transitionStart + transitionHeight;\n float edge0 = transitionStart * transitionStart;\n float edge1 = transitionEnd * transitionEnd;\n altitudeAlpha = 1.0 - clamp((worldRadiusSq - edge0) / (edge1 - edge0), 0.0, 1.0);\n rayEnd = cameraSpaceRayLength;\n if (altitudeAlpha > 0.0 && detSur > 0.0) {\n float nearSurface = 0.5 * ( -B - sqrt(detSur) );\n float interp = clamp(((cameraHeight - innerRadius) - 2000000.0) / 6000000.0, 0.0, 1.0);\n rayEnd = mix(cameraSpaceRayLength, nearSurface, interp);\n }\n }\n#endif\n float rayStart = 0.5 *(-B - sqrt(det));\n#ifdef HAZE\n float near = abs(rayStart);\n float far = abs(rayEnd);\n#else\n float rayEnd = 0.5 *(-B + sqrt(det));\n#endif\n float scatterDistance;\n if (rayStart < minRayStart)\n {\n rayStart = minRayStart;\n#ifndef HAZE\n scatterDistance = shellScale * min(0.0, innerRadius - cameraHeight);\n#endif\n }\n#ifndef HAZE\n else\n {\n scatterDistance = -1.0;\n }\n#endif\n vec3 start = cameraPosition + worldSpaceRay * rayStart;\n#ifdef HAZE\n vec3 end = cameraPosition + worldSpaceRay * rayEnd;\n float endLength = length(end);\n float altitudeEnd = endLength - innerRadius;\n float altitudeStart = length(start) - innerRadius;\n if (altitudeStart < 0.0) {\n altitudeStart = -altitudeStart;\n altitudeEnd = -altitudeEnd;\n }\n float lightAngle = dot(-lightingMainDirection, end) / endLength;\n if (near > far)\n {\n if (altitudeStart < altitudeEnd)\n {\n end = cameraPosition + worldSpaceRay * rayStart;\n start = cameraPosition + worldSpaceRay * rayEnd;\n worldSpaceRay *= -1.0;\n float tmp = altitudeStart;\n altitudeStart = altitudeEnd;\n altitudeEnd = tmp;\n }\n else if (altitudeStart == altitudeEnd)\n {\n altitudeStart += 1.0;\n }\n }\n if (altitudeStart > outerRadius - innerRadius)\n {\n scatterDistance = innerRadius - outerRadius;\n } else\n {\n scatterDistance = altitudeEnd - altitudeStart;\n }\n#endif\n vec2 opticalStartDepth = exp(scatterDistance * oneOverScaleDepth);\n float rayLength = rayEnd - rayStart;\n float sampleLength = rayLength / samples;\n float scaledLength = sampleLength * shellScale;\n vec3 sampleRay = worldSpaceRay * sampleLength;\n vec3 samplePoint = start + sampleRay * 0.5;\n#ifdef HAZE\n float cameraAngle = dot(-worldSpaceRay, end) / length(end);\n float scaleCameraAngle = scale(cameraAngle);\n vec2 cameraOffset = scaleCameraAngle * opticalStartDepth;\n float scaledValues = scale(lightAngle) + scaleCameraAngle;\n vec2 scaledValuesDepth = scaledValues * shellDepth;\n#else\n float cameraAngle = dot(worldSpaceRay, start / length(start));\n float angleMultiplier = cameraAngle > 0.0 ? cameraAngle : 0.0;\n float scaleCameraAngle = scale(cameraAngle);\n vec2 cameraOffset = scaleCameraAngle * opticalStartDepth * shellDepth;\n#endif\n vec3 frontColor = vec3(0.0);\n vec3 frontColorBlue = vec3(0.0);\n vec3 attenuate = vec3(0.0);\n vec3 attenuateBlue = vec3(0.0);\n for(int i=0; i<maxSamples; i++) {\n float height = length(samplePoint);\n float altitude = abs(height - innerRadius);\n vec2 depth = exp(-altitude * scaleOverScaleDepth);\n#ifdef HAZE\n vec2 scatter = depth * scaledValuesDepth - cameraOffset;\n#else\n float lightAngle = dot(-lightingMainDirection, samplePoint) / height;\n float cameraAngle = dot(worldSpaceRay, samplePoint) / height;\n float tmpScaledValues = scale(lightAngle) - scale(cameraAngle);\n vec2 scatter = cameraOffset + tmpScaledValues * depth * shellDepth;\n#endif\n attenuate = exp(-scatter.x * invWavelengthScaled);\n attenuateBlue = exp(-scatter.y * invWavelengthScaled);\n frontColor += attenuate * depth.x;\n frontColorBlue += attenuateBlue * depth.y;\n samplePoint += sampleRay;\n }\n float LdotR = clamp(dot(-lightingMainDirection, -worldSpaceRay ),-0.9999999,1.0);\n float LdotRSq = LdotR * LdotR + 1.0;\n#ifdef HAZE\n vec3 colorCoefficients = (scaledLength * 0.75 * LdotRSq) * (krESun * invWavelength + kmESun );\n vec3 color = colorCoefficients * frontColor;\n vec3 colorBlue = colorCoefficients * frontColorBlue;\n#else\n vec3 rayleighCoefficients = (scaledLength * 0.75 * LdotRSq * krESun) * invWavelength;\n float mieCoefficients = scaledLength * kmESun * miePhaseCoefficients * LdotRSq / pow(1.0 + gSq - 2.0 * g * LdotR, 1.5);\n vec3 color = rayleighCoefficients * frontColor + mieCoefficients * frontColor;\n vec3 colorBlue = rayleighCoefficients * frontColorBlue + mieCoefficients * frontColorBlue;\n#endif\n vec3 ldrBlue = expTM(colorBlue, 2.0 * exposure);\n vec3 ldrRed = expTM(color, exposure);\n vec3 LDR = mix(ldrBlue, ldrRed, 0.2);\n#ifdef HAZE\n LDR *= (1.0 - cameraAngle);\n vec3 hsv = rgb2hsv(LDR);\n hsv.y = clamp(hsv.y * 1.5, 0.0, 1.0);\n LDR = hsv2rgb(hsv);\n vec3 finalColor = LDR;\n#else\n vec3 ldrReinhard = reinhardTM(color, exposure);\n LDR += angleMultiplier * ldrReinhard;\n float side = (rayEnd + rayStart) * 0.5;\n float atmoHeight = sqrt(cameraHeightSq - side * side);\n float h2 = clamp(1.0 - ( atmoHeight - lowerAlphaBlendBound ) / ( outerRadius - lowerAlphaBlendBound ), 0.0, 1.0);\n vec3 finalColor = LDR * h2;\n vec3 hsv = rgb2hsv(finalColor);\n hsv.y = clamp(hsv.y * 1.5, 0.0, 1.0);\n finalColor = hsv2rgb(hsv);\n#endif\n#ifndef HAZE\n float atmosStrength = clamp((length(ldrRed) - 0.05) * 1.05, 0.0, 1.0);\n gl_FragColor = vec4(finalColor, atmosStrength * clamp(1.0 - ( atmoHeight - innerRadius ) / (outerRadius - innerRadius), 0.0, 1.0));\n if (surfaceBlend > 0.0) {\n gl_FragColor = mix(gl_FragColor, surfaceColor, surfaceBlend);\n }\n#else\n gl_FragColor = vec4(finalColor, 1.0) * altitudeAlpha;\n#endif\n } else {\n gl_FragColor = vec4(0.0);\n }\n}",
"realisticAtmosphere.vert": "#include <util/vsPrecision.glsl>\nuniform vec2 halfSizeNearPlane;\nuniform vec3 cameraUp;\nuniform vec3 cameraRight;\nuniform vec3 cameraDir;\nuniform vec2 cameraCenterOffset;\nattribute vec3 position;\nattribute vec2 uv0;\nvarying vec3 worldRay;\nvarying vec2 vtc;\n#ifdef HAZE\nvarying vec3 eyeDir;\n#endif\nvoid main(void) {\n vec3 v3Pos = position;\n vtc = uv0;\n vec2 rayvtc = uv0 - cameraCenterOffset;\n#ifdef HAZE\n eyeDir = vec3((2.0 * halfSizeNearPlane * rayvtc) - halfSizeNearPlane, -1.0);\n#else\n vec3 eyeDir = vec3((2.0 * halfSizeNearPlane * rayvtc) - halfSizeNearPlane, -1.0);\n#endif\n worldRay = eyeDir.z * cameraDir + eyeDir.y * cameraUp + eyeDir.x * cameraRight;\n gl_Position = vec4(v3Pos, 1.0);\n}",
"simpleAtmosphere.frag": "#include <util/fsPrecision.glsl>\nuniform sampler2D tex;\nvarying vec2 vtc;\nvarying float falloff;\n#ifndef PANORAMIC\nuniform float altitudeFade;\nvarying float innerFactor;\n#endif\nvoid main() {\n vec4 texColor = texture2D(tex, vtc);\n#ifdef PANORAMIC\n gl_FragColor = texColor * falloff;\n#else\n vec4 atmosphereColor = texColor * falloff;\n vec4 innerColor = vec4(texColor.rgb * falloff, 1.0 - altitudeFade);\n gl_FragColor = mix(atmosphereColor, innerColor, smoothstep(0.0, 1.0, innerFactor));\n#endif\n}",
"simpleAtmosphere.vert": "#include <util/vsPrecision.glsl>\n#include <util/transform.glsl>\nuniform mat4 proj;\nuniform mat4 view;\n#ifndef PANORAMIC\nconst float TWICEPI = 2.0*3.14159265;\nconst float ATMOSPHERE_RIM_SEGMENTS = 128.0;\nuniform vec3 silCircleCenter;\nuniform vec3 silCircleV1;\nuniform vec3 silCircleV2;\nuniform vec2 texV;\nuniform float innerScale;\nvarying float innerFactor;\n#endif\nuniform vec3 lightingMainDirection;\nattribute vec3 position;\nvarying vec2 vtc;\nvarying float falloff;\nvoid main(void) {\n vec3 lightDirection = -lightingMainDirection;\n#ifdef PANORAMIC\n vec3 pos = position;\n float ndotl = lightDirection.z;\n vtc = vec2(0.0, position.z+0.05);\n#else\n innerFactor = clamp(-position.z, 0.0, 1.0);\n float scale = position.y * (1.0 + innerFactor * innerScale);\n float phi = position.x * (TWICEPI / ATMOSPHERE_RIM_SEGMENTS) + 1.0;\n vec3 pos = (silCircleCenter + sin(phi) * silCircleV1 + cos(phi) * silCircleV2) * scale;\n float ndotl = dot(normalize(position.y > 0.0 ? pos: silCircleCenter), lightDirection);\n vtc.x = position.x / ATMOSPHERE_RIM_SEGMENTS;\n vtc.y = texV.x * (1.0 - position.z) + texV.y * position.z;\n#endif\n falloff = max(0.0, smoothstep(-1.0, 0.8, 2.0 * ndotl));\n gl_Position = transformPosition(proj, view, pos);\n gl_Position.z = gl_Position.w;\n}",
"simpleAtmosphereFade.frag": "#include <util/fsPrecision.glsl>\nvarying vec4 color;\nvoid main() {\n gl_FragColor = color;\n}",
"simpleAtmosphereFade.vert": "#include <util/vsPrecision.glsl>\nattribute vec2 position;\nuniform vec3 lightingMainDirection;\nuniform vec3 cameraPosition;\nuniform float undergroundFadeAlpha;\nvarying vec4 color;\nvoid main(void) {\n float ndotl = dot(normalize(cameraPosition), -lightingMainDirection);\n float lighting = max(0.0, smoothstep(-1.0, 0.8, 2.0 * ndotl));\n color = vec4(vec3(lighting), undergroundFadeAlpha);\n gl_Position = vec4(position.xy, 1.0, 1.0);\n}",
"stars.frag": "#include <util/fsPrecision.glsl>\nvarying vec4 vcolor;\nvarying float vsize;\nvoid main() {\n float cap = 0.7;\n float scale = 1.0/cap;\n float helper = clamp(length(abs(gl_PointCoord-vec2(0.5))),0.0,cap);\n float alpha = clamp((cap-helper)*scale,0.0,1.0);\n float intensity = alpha*alpha*alpha;\n if (vsize < 3.0)\n intensity *= 0.5;\n gl_FragColor = vec4(1.0,1.0,1.0,intensity);\n gl_FragColor.xyz *= vcolor.xyz;\n}",
"stars.vert": "#include <util/vsPrecision.glsl>\n#include <util/alignPixel.glsl>\nuniform mat4 proj;\nuniform mat4 view;\nuniform mat4 model;\nuniform vec4 viewport;\nuniform float pixelRatio;\nattribute vec3 position;\nattribute vec4 color;\nattribute float size;\nvarying vec4 vcolor;\nvarying float vsize;\nvoid main(void) {\n vec4 posProj = proj * view * model*vec4(position*1.0e25,1.0);\n gl_Position = alignToPixelCenter(posProj, viewport.zw);\n gl_Position.z = gl_Position.w;\n vcolor = color / 1.2;\n vsize = size * 5.0 * pixelRatio;\n gl_PointSize = vsize;\n}"
},
materials: {
hud: {
"colorPass.frag": "#include <materials/hud/hudHeader.glsl>\nvoid main() {\n#include <materials/hud/hudMain.glsl>\n}",
"highlightPass.frag": "#include <materials/hud/hudHeader.glsl>\n#include <util/highlight.glsl>\nuniform sampler2D depthTex;\nuniform vec4 highlightViewportPixelSz;\nvoid main() {\n#include <materials/hud/hudMain.glsl>\n#ifdef BINARY_HIGHLIGHT_OCCLUSION\n if (voccluded == 1.0) {\n gl_FragColor = vec4(1.0, 1.0, 0.0, 1.0);\n } else {\n gl_FragColor = vec4(1.0, 0.0, 1.0, 1.0);\n }\n#else\n gl_FragColor = highlightData(gl_FragCoord, depthTex, highlightViewportPixelSz);\n#endif\n}",
"hud.vert": "#include <util/vsPrecision.glsl>\n#include <util/alignPixel.glsl>\n#include <util/hud.glsl>\n#include <util/visualVariables.glsl>\n#include <util/slice.glsl>\nuniform vec2 screenOffset;\nuniform vec2 anchorPos;\nuniform vec2 textureCoordinateScaleFactor;\n#ifdef SCREEN_SIZE_PERSPECTIVE\nuniform vec4 screenSizePerspective;\n#endif\n#ifdef DEBUG_DRAW_BORDER\nvarying vec4 debugBorderCoords;\n#endif\nattribute vec2 uv0;\nattribute vec4 color;\nattribute vec2 size;\nattribute vec4 auxpos2;\nvarying vec4 vcolor;\nvarying vec2 vtc;\nvarying vec2 vsize;\n#ifdef BINARY_HIGHLIGHT_OCCLUSION\nvarying float voccluded;\n#endif\nvoid main(void) {\n ProjectHUDAux projectAux;\n vec4 posProj = projectPositionHUD(projectAux);\n if (rejectBySlice(projectAux.posModel)) {\n gl_Position = vec4(1e038, 1e038, 1e038, 1.0);\n return;\n }\n vec2 inputSize;\n#ifdef SCREEN_SIZE_PERSPECTIVE\n inputSize = screenSizePerspectiveScaleVec2(size, projectAux.absCosAngle, projectAux.distanceToCamera, screenSizePerspective);\n vec2 screenOffsetScaled = screenSizePerspectiveScaleVec2(screenOffset, projectAux.absCosAngle, projectAux.distanceToCamera, screenSizePerspectiveAlignment);\n#else\n inputSize = size;\n vec2 screenOffsetScaled = screenOffset;\n#endif\n#ifdef VV_SIZE\n inputSize *= vvGetScale(auxpos2).xx;\n#endif\n vec2 combinedSize = inputSize * pixelRatio;\n vec4 quadOffset = vec4(0.0);\n#if defined(OCCL_TEST) || defined(BINARY_HIGHLIGHT_OCCLUSION)\n bool visible = testVisibilityHUD(posProj);\n#endif\n#ifdef BINARY_HIGHLIGHT_OCCLUSION\nvoccluded = visible ? 0.0 : 1.0;\n#endif\n#ifdef OCCL_TEST\n if (visible) {\n#endif\n vec2 uv01 = floor(uv0);\n vec2 uv = uv0 - uv01;\n quadOffset.xy = ((uv01 - anchorPos) * 2.0 * combinedSize + screenOffsetScaled) / viewport.zw * posProj.w;\n#ifdef SIGNED_DISTANCE_FIELD\n posProj = alignToPixelOrigin(posProj, viewport.zw) + quadOffset;\n#else\n posProj += quadOffset;\n if (inputSize.x == size.x) {\n posProj = alignToPixelOrigin(posProj, viewport.zw);\n }\n#endif\n gl_Position = posProj;\n vtc = uv * textureCoordinateScaleFactor;\n#ifdef DEBUG_DRAW_BORDER\n debugBorderCoords = vec4(uv01, 1.5 / combinedSize);\n#endif\n vsize = inputSize;\n#ifdef OCCL_TEST\n } else {\n vtc = vec2(.0);\n#ifdef DEBUG_DRAW_BORDER\n debugBorderCoords = vec4(0.5, 0.5, 1.5 / combinedSize);\n#endif\n }\n#endif\n gl_Position = posProj;\n#ifdef VV_COLOR\n vcolor = vvGetColor(auxpos2, vvColorValues, vvColorColors);\n#else\n vcolor = color / 255.0;\n#endif\n}",
"hudHeader.glsl": "#include <util/enableExtensions.glsl>\n#include <util/fsPrecision.glsl>\n#include <util/encoding.glsl>\n#include <util/color.glsl>\nuniform sampler2D tex;\nuniform vec4 overrideColor;\nuniform vec4 outlineColor;\nuniform float outlineSize;\nvarying vec4 vcolor;\nvarying vec2 vtc;\nvarying vec2 vsize;\n#ifdef BINARY_HIGHLIGHT_OCCLUSION\nvarying float voccluded;\n#endif\n#ifdef DEBUG_DRAW_BORDER\nvarying vec4 debugBorderCoords;\n#endif",
"hudMain.glsl": "#ifdef SIGNED_DISTANCE_FIELD\n vec4 color = vec4(0.0, 0.0, 0.0, 0.0);\n vec4 fillPixelColor = overrideColor * vcolor;\n const float txSize = 128.0;\n const float texelSize = 1.0 / txSize;\n vec2 scaleFactor = (vsize - txSize) * texelSize;\n vec2 samplePos = vtc + (vec2(1.0, -1.0) * texelSize) * scaleFactor;\n float d = rgba2float(texture2D(tex, samplePos)) - 0.5;\n float dist = d * vsize.x;\n fillPixelColor.a *= clamp(0.5 - dist, 0.0, 1.0);\n if (outlineSize > 0.25) {\n vec4 outlinePixelColor = outlineColor;\n float clampedOutlineSize = min(outlineSize, 0.5*vsize.x);\n outlinePixelColor.a *= clamp(0.5 - (abs(dist) - 0.5*clampedOutlineSize), 0.0, 1.0);\n float compositeAlpha = outlinePixelColor.a + fillPixelColor.a * (1.0 - outlinePixelColor.a);\n vec3 compositeColor = vec3(outlinePixelColor) * outlinePixelColor.a +\n vec3(fillPixelColor) * fillPixelColor.a * (1.0 - outlinePixelColor.a);\n gl_FragColor = vec4(compositeColor, compositeAlpha);\n }\n else {\n gl_FragColor = premultiplyAlpha(fillPixelColor);\n }\n#else\n gl_FragColor = texture2D(tex, vtc, -0.5) * premultiplyAlpha(overrideColor * vcolor);\n#endif\n#ifdef DEBUG_DRAW_BORDER\n float isBorder = float(any(lessThan(debugBorderCoords.xy, debugBorderCoords.zw)) || any(greaterThan(debugBorderCoords.xy, 1.0 - debugBorderCoords.zw)));\n gl_FragColor = mix(gl_FragColor, vec4(1.0, 0.0, 1.0, 1.0), isBorder);\n#endif\n if (gl_FragColor.a < 0.1) {\n discard;\n }",
"occlusionTest.frag": "#include <util/fsPrecision.glsl>\nuniform vec4 color;\nvoid main() {\n gl_FragColor = color;\n}",
"occlusionTest.vert": "#include <util/vsPrecision.glsl>\n#include <util/alignPixel.glsl>\n#include <util/hud.glsl>\n#include <util/slice.glsl>\nvoid main(void) {\n vec4 posProjCenter;\n if (dot(position, position) > 0.0) {\n ProjectHUDAux projectAux;\n vec4 posProj = projectPositionHUD(projectAux);\n posProjCenter = alignToPixelCenter(posProj, viewport.zw);\n vec3 vpos = projectAux.posModel;\n if (rejectBySlice(vpos)) {\n posProjCenter = vec4(1e038, 1e038, 1e038, 1.0);\n }\n }\n else {\n posProjCenter = vec4(1e038, 1e038, 1e038, 1.0);\n }\n gl_Position = posProjCenter;\n gl_PointSize = 1.0;\n}"
},
lineCallout: {
"lineCallout.frag": "#include <util/fsPrecision.glsl>\nuniform vec4 color;\nuniform vec4 borderColor;\nvarying vec4 coverageSampling;\nvarying vec2 lineSizes;\nvoid main() {\n vec2 coverage = min(1.0 - clamp(abs(coverageSampling.xy) - coverageSampling.zw, 0.0, 1.0), lineSizes);\n float borderAlpha = color.a * borderColor.a * coverage.y;\n float colorAlpha = color.a * coverage.x;\n float finalAlpha = mix(borderAlpha, 1.0, colorAlpha);\n#ifdef DEPTH_HUD\n if (finalAlpha < 0.01) {\n discard;\n }\n#else\n vec3 finalRgb = mix(borderColor.rgb * borderAlpha, color.rgb, colorAlpha);\n gl_FragColor = vec4(finalRgb, finalAlpha);\n#endif\n}",
"lineCallout.vert": "#include <util/vsPrecision.glsl>\n#include <util/alignPixel.glsl>\n#include <util/hud.glsl>\n#include <util/slice.glsl>\nattribute vec2 uv0;\nuniform float lineSize;\nuniform vec2 pixelToNDC;\nuniform float borderSize;\nuniform vec2 screenOffset;\nvarying vec4 coverageSampling;\nvarying vec2 lineSizes;\nvoid main(void) {\n ProjectHUDAux projectAux;\n vec4 endPoint = projectPositionHUD(projectAux);\n vec3 vpos = projectAux.posModel;\n if (rejectBySlice(vpos)) {\n gl_Position = vec4(1e38, 1e38, 1e38, 1.0);\n return;\n }\n#ifdef OCCL_TEST\n if (!testVisibilityHUD(endPoint)) {\n gl_Position = vec4(1e38, 1e38, 1e38, 1.0);\n return;\n }\n#endif\n#ifdef SCREEN_SIZE_PERSPECTIVE\n vec4 perspectiveFactor = screenSizePerspectiveScaleFactor(projectAux.absCosAngle, projectAux.distanceToCamera, screenSizePerspectiveAlignment);\n vec2 screenOffsetScaled = applyScreenSizePerspectiveScaleFactorVec2(screenOffset, perspectiveFactor);\n#else\n vec2 screenOffsetScaled = screenOffset;\n#endif\n vec3 posView = (view * (model * vec4(position, 1.0))).xyz;\n applyHUDViewDependentPolygonOffset(auxpos1.w, projectAux.absCosAngle, posView);\n vec4 startPoint = proj * vec4(posView, 1.0);\n vec2 screenOffsetNorm = screenOffsetScaled * 2.0 / viewport.zw;\n startPoint.xy += screenOffsetNorm * startPoint.w;\n endPoint.xy += screenOffsetNorm * endPoint.w;\n vec4 startAligned = alignToPixelOrigin(startPoint, viewport.zw);\n vec4 endAligned = alignToPixelOrigin(endPoint, viewport.zw);\n#ifdef DEPTH_HUD\n#ifdef DEPTH_HUD_ALIGN_START\n endAligned = vec4(endAligned.xy / endAligned.w * startAligned.w, startAligned.zw);\n#else\n startAligned = vec4(startAligned.xy / startAligned.w * endAligned.w, endAligned.zw);\n#endif\n#endif\n vec4 projectedPosition = mix(startAligned, endAligned, uv0.y);\n vec2 screenSpaceDirection = normalize(endAligned.xy / endAligned.w - startAligned.xy / startAligned.w);\n vec2 perpendicularScreenSpaceDirection = vec2(screenSpaceDirection.y, -screenSpaceDirection.x);\n#ifdef SCREEN_SIZE_PERSPECTIVE\n float lineSizeScaled = applyScreenSizePerspectiveScaleFactorFloat(lineSize, perspectiveFactor);\n float borderSizeScaled = applyScreenSizePerspectiveScaleFactorFloat(borderSize, perspectiveFactor);\n#else\n float lineSizeScaled = lineSize;\n float borderSizeScaled = borderSize;\n#endif\n float halfPixelSize = lineSizeScaled * 0.5;\n float halfWholePixelSize = floor(lineSizeScaled) * 0.5;\n float halfPixelSizeInt = floor(halfWholePixelSize);\n float subpixelOffset = -fract(lineSizeScaled) * float(halfWholePixelSize > 0.0);\n float pixelOffset = -halfPixelSizeInt + subpixelOffset;\n float padding = 1.0 + borderSizeScaled;\n vec2 ndcOffset = (pixelOffset - padding + uv0.x * (lineSizeScaled + padding + padding)) * pixelToNDC;\n projectedPosition.xy += perpendicularScreenSpaceDirection * ndcOffset * projectedPosition.w;\n float edgeDirection = (uv0.x * 2.0 - 1.0);\n float halfBorderSize = 0.5 * borderSizeScaled;\n float halfPixelSizeAndBorder = halfPixelSize + halfBorderSize;\n float outerEdgeCoverageSampler = edgeDirection * (halfPixelSizeAndBorder + halfBorderSize + 1.0);\n float isOneSided = float(lineSizeScaled < 2.0 && borderSize < 2.0);\n coverageSampling = vec4(\n outerEdgeCoverageSampler,\n outerEdgeCoverageSampler - halfPixelSizeAndBorder * isOneSided,\n halfPixelSize - 0.5,\n halfBorderSize - 0.5 + halfPixelSizeAndBorder * (1.0 - isOneSided)\n );\n lineSizes = vec2(lineSizeScaled, borderSizeScaled);\n gl_Position = projectedPosition;\n}"
},
measurementArrow: {
"measurementArrow.frag": "#include <util/fsPrecision.glsl>\nuniform float outlineSize;\nuniform vec4 outlineColor;\nuniform float stripeLength;\nuniform vec4 stripeEvenColor;\nuniform vec4 stripeOddColor;\nvarying vec2 vtc;\nvarying float vlength;\nvarying float vradius;\n#define INV_SQRT2 (1.0 / sqrt(2.0))\nvec4 arrowColor(vec2 tc, float len) {\n float d = INV_SQRT2 * (tc.x - abs(tc.y));\n d = min(d, INV_SQRT2 * (len - tc.x - abs(tc.y)));\n d = min(d, 1.0 - abs(tc.y));\n if (d < 0.0) {\n return vec4(0.0);\n } else if (d < outlineSize) {\n return outlineColor;\n } else {\n return fract(0.5 / stripeLength * tc.x * vradius) >= 0.5 ? stripeOddColor : stripeEvenColor;\n }\n}\nvoid main(void) {\n vec2 ntc = vec2(vtc.x / vradius, vtc.y);\n vec4 color = arrowColor(ntc, vlength / vradius);\n if (color.a == 0.0) {\n discard;\n }\n gl_FragColor = color;\n}",
"measurementArrow.vert": "#include <util/vsPrecision.glsl>\nuniform mat4 proj;\nuniform mat4 view;\nuniform mat4 model;\nuniform float width;\nattribute vec3 position;\nattribute vec3 normal;\nattribute vec2 uv0;\nattribute float auxpos1;\nvarying vec2 vtc;\nvarying float vlength;\nvarying float vradius;\nvoid main(void) {\n vec3 bitangent = normal;\n vtc = uv0;\n vlength = auxpos1;\n vradius = 0.5 * width;\n vec4 pos = view * vec4((model * vec4(position + vradius * bitangent * uv0.y, 1.0)).xyz, 1.0);\n gl_Position = proj * pos;\n}"
},
slicePlane: {
"slicePlane.frag": "#include <util/enableExtensions.glsl>\n#include <util/fsPrecision.glsl>\nuniform vec4 backgroundColor;\nuniform vec4 gridColor;\nuniform float ratio;\nuniform float gridWidth;\nvarying vec2 vUV;\nvoid main() {\n const float LINE_WIDTH = 1.0;\n vec2 uvScaled = vUV * gridWidth;\n vec2 gridUV = (fract(uvScaled + 0.5) - 0.5) / (LINE_WIDTH * fwidth(uvScaled));\n vec2 grid = (1.0 - step(0.5, gridUV)) * step(-0.5, gridUV);\n grid.x *= step(0.5, uvScaled.x) * step(uvScaled.x, gridWidth - 0.5);\n grid.y *= step(0.5, uvScaled.y) * step(uvScaled.y, gridWidth - 0.5);\n float gridFade = max(grid.x, grid.y);\n float gridAlpha = gridColor.a * gridFade;\n gl_FragColor =\n vec4(backgroundColor.rgb * backgroundColor.a, backgroundColor.a) * (1.0 - gridAlpha) +\n vec4(gridColor.rgb, 1.0) * gridAlpha;\n}",
"slicePlane.vert": "#include <util/vsPrecision.glsl>\nuniform mat4 proj;\nuniform mat4 view;\nuniform mat4 model;\nattribute vec3 position;\nattribute vec2 uv0;\nvarying vec2 vUV;\nvoid main(void) {\n vUV = uv0;\n gl_Position = proj * view * vec4((model * vec4(position, 1.0)).xyz, 1.0);\n}"
}
},
pointRenderer: {
"pointRenderer.frag": "#include <util/fsPrecision.glsl>\n#include <util/encoding.glsl>\n#ifdef HIGHLIGHT_PASS\n#include <util/highlight.glsl>\nuniform sampler2D depthTex;\nuniform vec4 highlightViewportPixelSz;\n#endif\n#ifdef DEPTH_PASS\nvarying float depth;\n#elif defined(HIGHLIGHT_PASS)\n#else\nvarying vec3 vColor;\n#endif\nvoid main(void) {\n vec2 vOffset = gl_PointCoord - vec2(0.5, 0.5);\n float r2 = dot(vOffset, vOffset);\n if (r2 > 0.25) {\n discard;\n }\n#ifdef DEPTH_PASS\n gl_FragColor = float2rgba(depth);\n#elif defined(HIGHLIGHT_PASS)\n gl_FragColor = highlightData(gl_FragCoord, depthTex, highlightViewportPixelSz);\n#else\n gl_FragColor = vec4(vColor, 1.0);\n#endif\n}",
"pointRenderer.vert": "#include <util/slice.glsl>\n#include <util/vsPrecision.glsl>\nattribute vec3 aPosition;\nattribute vec3 aColor;\nuniform mat4 uModelViewMatrix;\nuniform mat4 uProjectionMatrix;\nuniform vec2 uScreenMinMaxSize;\nuniform vec2 uPointScale;\nuniform vec3 uClipMin;\nuniform vec3 uClipMax;\n#ifdef DEPTH_PASS\nuniform vec2 nearFar;\nvarying float depth;\n#else\nvarying vec3 vColor;\n#endif\nvoid main(void) {\n if (aPosition.x < uClipMin.x || aPosition.y < uClipMin.y || aPosition.z < uClipMin.z ||\n aPosition.x > uClipMax.x || aPosition.y > uClipMax.y || aPosition.z > uClipMax.z) {\n gl_Position = vec4(0.0,0.0,0.0,2.0);\n gl_PointSize = 0.0;\n return;\n }\n if (rejectBySlice(aPosition)) {\n gl_Position = vec4(0.0,0.0,0.0,2.0);\n gl_PointSize = 0.0;\n return;\n }\n vec4 camera = uModelViewMatrix * vec4(aPosition, 1.0);\n float pointSize = uPointScale.x;\n vec4 position = uProjectionMatrix * camera;\n#ifdef DRAW_SCREEN_SIZE\n float clampedScreenSize = pointSize;\n#else\n float pointRadius = 0.5 * pointSize;\n vec4 cameraOffset = camera + vec4(0.0, pointRadius, 0.0, 0.0);\n vec4 positionOffset = uProjectionMatrix * cameraOffset;\n float radius = abs(positionOffset.y - position.y);\n float viewHeight = uPointScale.y;\n float screenPointSize = (radius / position.w) * viewHeight;\n float clampedScreenSize = clamp(screenPointSize, uScreenMinMaxSize.x, uScreenMinMaxSize.y);\n camera.xyz -= normalize(camera.xyz) * pointRadius * clampedScreenSize / screenPointSize;\n position = uProjectionMatrix * camera;\n#endif\n gl_PointSize = clampedScreenSize;\n gl_Position = position;\n#ifdef DEPTH_PASS\n depth = (-camera.z - nearFar[0]) / (nearFar[1] - nearFar[0]);\n#else\n vColor = aColor;\n#endif\n}"
},
renderer: {
highlight: {
"apply.frag": "#include <util/fsPrecision.glsl>\nuniform sampler2D tex;\nuniform sampler2D origin;\nuniform vec4 color;\nuniform vec4 haloColor;\nuniform float outlineSize;\nuniform float blurSize;\nuniform vec4 opacities;\nvarying vec2 uv;\nvoid main() {\n #if defined(GRID_OPTIMIZATION) && defined(GRID_DEBUG)\n gl_FragColor = vec4(uv, 0.0, 1.0);\n #else\n vec4 blurredHighlightValue = texture2D(tex, uv);\n float highlightIntensity = blurredHighlightValue.a;\n if (highlightIntensity == 0.0) {\n discard;\n }\n vec4 origin_color = texture2D(origin, uv);\n float outlineIntensity;\n float fillIntensity;\n if (blurredHighlightValue.g > blurredHighlightValue.b) {\n outlineIntensity = haloColor.w * opacities[1];\n fillIntensity = color.w * opacities[3];\n }\n else {\n outlineIntensity = haloColor.w * opacities[0];\n fillIntensity = color.w * opacities[2];\n }\n float inner = 1.0 - outlineSize / 9.0;\n float outer = 1.0 - (outlineSize + blurSize) / 9.0;\n float outlineFactor = smoothstep(outer, inner, highlightIntensity);\n float fillFactor = any(notEqual(origin_color, vec4(0.0, 0.0, 0.0, 0.0))) ? 1.0 : 0.0;\n float intensity = outlineIntensity * outlineFactor * (1.0 - fillFactor) + fillIntensity * fillFactor;\n gl_FragColor = vec4(mix(haloColor.rgb, color.rgb, fillFactor), intensity);\n #endif\n}",
"apply.vert": "#include <util/vsPrecision.glsl>\nattribute vec2 position;\nvarying vec2 uv;\n#ifdef GRID_OPTIMIZATION\n attribute vec2 uv0;\n uniform sampler2D coverageTex;\n#endif\nvoid main() {\n #ifdef GRID_OPTIMIZATION\n #ifdef GRID_DEBUG\n vec4 cov = texture2D(coverageTex, uv0);\n if (cov.r == 0.0 || cov.g == 1.0 || cov.b == 1.0) {\n gl_Position = vec4(0.0);\n return;\n }\n gl_Position = vec4(position, .0, 1.0);\n uv = uv0;\n return;\n #else\n vec4 cov = texture2D(coverageTex, uv0);\n if (cov.r == 0.0) {\n gl_Position = vec4(0.0);\n return;\n }\n #endif\n #endif\n gl_Position = vec4(position, .0, 1.0);\n uv = position.xy * .5 + vec2(.5);\n}",
"blur.frag": "#include <util/fsPrecision.glsl>\nuniform sampler2D tex;\n#ifdef GRID_OPTIMIZATION\n uniform vec2 blurSize;\n varying vec3 blurCoordinate;\n#else\n varying vec2 blurCoordinates[GAUSSIAN_SAMPLES];\n#endif\nvoid main() {\n #ifdef GRID_OPTIMIZATION\n vec2 uv = blurCoordinate.xy;\n vec4 center = texture2D(tex, uv);\n if (blurCoordinate.z == 1.0) {\n gl_FragColor = center;\n }\n else {\n vec4 sum = vec4(0.0);\n #if GAUSSIAN_SAMPLES == 3\n sum += center * 0.204164;\n sum += texture2D(tex, uv + blurSize * 1.407333) * 0.304005;\n sum += texture2D(tex, uv - blurSize * 1.407333) * 0.304005;\n #elif GAUSSIAN_SAMPLES == 5\n sum += center * 0.204164;\n sum += texture2D(tex, uv + blurSize * 1.407333) * 0.304005;\n sum += texture2D(tex, uv - blurSize * 1.407333) * 0.304005;\n sum += texture2D(tex, uv + blurSize * 3.294215) * 0.093913;\n sum += texture2D(tex, uv - blurSize * 3.294215) * 0.093913;\n #elif GAUSSIAN_SAMPLES == 7\n sum += center * 0.204164;\n sum += texture2D(tex, uv + blurSize * 1.407333) * 0.304005;\n sum += texture2D(tex, uv - blurSize * 1.407333) * 0.304005;\n sum += texture2D(tex, uv + blurSize * 3.294215) * 0.093913;\n sum += texture2D(tex, uv - blurSize * 3.294215) * 0.093913;\n sum += texture2D(tex, uv + blurSize * 5.1) * 0.03;\n sum += texture2D(tex, uv - blurSize * 5.1) * 0.03;\n #elif GAUSSIAN_SAMPLES == 9\n sum += center * 0.154164;\n sum += texture2D(tex, uv + blurSize * 1.5) * 0.204005;\n sum += texture2D(tex, uv - blurSize * 1.5) * 0.204005;\n sum += texture2D(tex, uv + blurSize * 3.5) * 0.123913;\n sum += texture2D(tex, uv - blurSize * 3.5) * 0.123913;\n sum += texture2D(tex, uv + blurSize * 5.5) * 0.123913;\n sum += texture2D(tex, uv - blurSize * 5.5) * 0.123913;\n sum += texture2D(tex, uv + blurSize * 7.5) * 0.05;\n sum += texture2D(tex, uv - blurSize * 7.5) * 0.05;\n #endif\n gl_FragColor = sum;\n }\n #else\n vec4 sum = vec4(0.0);\n #if GAUSSIAN_SAMPLES == 3\n sum += texture2D(tex, blurCoordinates[0]) * 0.204164;\n sum += texture2D(tex, blurCoordinates[1]) * 0.304005;\n sum += texture2D(tex, blurCoordinates[2]) * 0.304005;\n #elif GAUSSIAN_SAMPLES == 5\n sum += texture2D(tex, blurCoordinates[0]) * 0.204164;\n sum += texture2D(tex, blurCoordinates[1]) * 0.304005;\n sum += texture2D(tex, blurCoordinates[2]) * 0.304005;\n sum += texture2D(tex, blurCoordinates[3]) * 0.093913;\n sum += texture2D(tex, blurCoordinates[4]) * 0.093913;\n #elif GAUSSIAN_SAMPLES == 7\n sum += texture2D(tex, blurCoordinates[0]) * 0.204164;\n sum += texture2D(tex, blurCoordinates[1]) * 0.304005;\n sum += texture2D(tex, blurCoordinates[2]) * 0.304005;\n sum += texture2D(tex, blurCoordinates[3]) * 0.093913;\n sum += texture2D(tex, blurCoordinates[4]) * 0.093913;\n sum += texture2D(tex, blurCoordinates[5]) * 0.03;\n sum += texture2D(tex, blurCoordinates[6]) * 0.03;\n #elif GAUSSIAN_SAMPLES == 9\n sum += texture2D(tex, blurCoordinates[0]) * 0.154164;\n sum += texture2D(tex, blurCoordinates[1]) * 0.204005;\n sum += texture2D(tex, blurCoordinates[2]) * 0.204005;\n sum += texture2D(tex, blurCoordinates[3]) * 0.123913;\n sum += texture2D(tex, blurCoordinates[4]) * 0.123913;\n sum += texture2D(tex, blurCoordinates[5]) * 0.09;\n sum += texture2D(tex, blurCoordinates[6]) * 0.09;\n sum += texture2D(tex, blurCoordinates[7]) * 0.05;\n sum += texture2D(tex, blurCoordinates[8]) * 0.05;\n #endif\n gl_FragColor = sum;\n #endif\n}",
"blur.vert": "#include <util/vsPrecision.glsl>\nattribute vec2 position;\nattribute vec2 uv0;\n#ifdef GRID_OPTIMIZATION\n uniform sampler2D coverageTex;\n varying vec3 blurCoordinate;\n#else\n uniform vec2 blurSize;\n varying vec2 blurCoordinates[GAUSSIAN_SAMPLES];\n#endif\nvoid main() {\n gl_Position = vec4(position, 0.0, 1.0);\n #ifdef GRID_OPTIMIZATION\n vec4 cov = texture2D(coverageTex, uv0);\n if (cov.r == 0.0) {\n gl_Position = vec4(0.0);\n }\n blurCoordinate = vec3(gl_Position.xy * .5 + vec2(.5), max(cov.g, cov.b));\n #else\n vec2 uv = position.xy * .5 + vec2(.5);\n #if GAUSSIAN_SAMPLES == 3\n blurCoordinates[0] = uv;\n blurCoordinates[1] = uv + blurSize * 1.407333;\n blurCoordinates[2] = uv - blurSize * 1.407333;\n #elif GAUSSIAN_SAMPLES == 5\n blurCoordinates[0] = uv;\n blurCoordinates[1] = uv + blurSize * 1.407333;\n blurCoordinates[2] = uv - blurSize * 1.407333;\n blurCoordinates[3] = uv + blurSize * 3.294215;\n blurCoordinates[4] = uv - blurSize * 3.294215;\n #elif GAUSSIAN_SAMPLES == 7\n blurCoordinates[0] = uv;\n blurCoordinates[1] = uv + blurSize * 1.407333;\n blurCoordinates[2] = uv - blurSize * 1.407333;\n blurCoordinates[3] = uv + blurSize * 3.294215;\n blurCoordinates[4] = uv - blurSize * 3.294215;\n blurCoordinates[5] = uv + blurSize * 5.1;\n blurCoordinates[6] = uv - blurSize * 5.1;\n #elif GAUSSIAN_SAMPLES == 9\n blurCoordinates[0] = uv;\n blurCoordinates[1] = uv + blurSize * 1.407333;\n blurCoordinates[2] = uv - blurSize * 1.407333;\n blurCoordinates[3] = uv + blurSize * 3.294215;\n blurCoordinates[4] = uv - blurSize * 3.294215;\n blurCoordinates[5] = uv + blurSize * 5.1;\n blurCoordinates[6] = uv - blurSize * 5.1;\n blurCoordinates[7] = uv + blurSize * 7.1;\n blurCoordinates[8] = uv - blurSize * 7.1;\n #endif\n #endif\n}",
"downsample.frag": "#include <util/fsPrecision.glsl>\nuniform sampler2D tex;\nuniform vec2 invFramebufferDim;\nvoid main() {\n vec2 coord = gl_FragCoord.xy * invFramebufferDim;\n vec4 value = texture2D(tex, coord);\n float mx = floor(max(value.g, value.b));\n gl_FragColor = vec4(ceil(value.r), mx, mx, 1.0);\n}",
"downsample.vert": "#include <util/vsPrecision.glsl>\nattribute vec2 position;\nvoid main() {\n gl_Position = vec4(vec2(1.0) - position * 2.0, .0, 1.0);\n}"
},
laserLine: {
"laserLine.frag": "#include <util/enableExtensions.glsl>\n#include <util/fsPrecision.glsl>\n#include <util/depth.glsl>\nuniform sampler2D depthMap;\nuniform vec2 nearFar;\nuniform vec4 projInfo;\nuniform vec2 zScale;\nuniform float maxPixelDistance;\nuniform vec4 focusPlane;\nuniform vec4 focusSphere;\nuniform vec4 segmentPlane;\nuniform vec3 segmentStart;\nuniform vec3 segmentEnd;\nuniform vec3 glowColor;\nuniform float glowWidth;\nuniform vec3 innerColor;\nuniform float innerWidth;\nuniform float globalAlpha;\nvarying vec2 uv;\n#define INFINITY 100000.0\nvec3 reconstructPosition(vec2 fragCoord, float depth) {\n return vec3((fragCoord * projInfo.xy + projInfo.zw) * (zScale.x * depth + zScale.y), depth);\n}\nfloat planeDistancePixels(vec4 plane, vec3 pos) {\n float dist = dot(plane.xyz, pos) + plane.w;\n float width = fwidth(dist);\n dist /= min(width, maxPixelDistance);\n return abs(dist);\n}\nfloat sphereDistancePixels(vec4 sphere, vec3 pos) {\n float dist = distance(sphere.xyz, pos) - sphere.w;\n float width = fwidth(dist);\n dist /= min(width, maxPixelDistance);\n return abs(dist);\n}\nvec4 blendPremultiplied(vec4 source, vec4 dest) {\n float oneMinusSourceAlpha = 1.0 - source.a;\n return vec4(\n source.rgb + dest.rgb * oneMinusSourceAlpha,\n source.a + dest.a * oneMinusSourceAlpha\n );\n}\nvec4 premultipliedColor(vec3 rgb, float alpha) {\n return vec4(rgb * alpha, alpha);\n}\nvec4 laserLineProfile(float dist) {\n if (dist > glowWidth) {\n return vec4(0.0);\n }\n float innerAlpha = (1.0 - smoothstep(0.0, innerWidth, dist));\n float glowAlpha = pow(max(0.0, 1.0 - dist / glowWidth), 8.0);\n return blendPremultiplied(\n premultipliedColor(innerColor, innerAlpha),\n premultipliedColor(glowColor, glowAlpha)\n );\n}\nvoid main() {\n float depth = linearDepth(depthMap, uv, nearFar);\n if (-depth == nearFar[0]) {\n discard;\n }\n vec3 pos = reconstructPosition(gl_FragCoord.xy, depth);\n float ddepth = fwidth(depth);\n float depthDiscontinuityAlpha = 1.0 - smoothstep(0.0, 0.01, -ddepth / depth);\n vec3 normal = normalize(cross(dFdx(pos), dFdy(pos)));\n float focusPlaneDistance = planeDistancePixels(focusPlane, pos);\n float focusSphereDistance = sphereDistancePixels(focusSphere, pos);\n float segmentDistance = INFINITY;\n float segmentLength = length(segmentEnd - segmentStart);\n vec3 segmentDir = (segmentEnd - segmentStart) / segmentLength;\n float t = dot(segmentDir, pos - segmentStart);\n if (segmentLength > 0.0 && t >= 0.0 && t <= segmentLength) {\n segmentDistance = planeDistancePixels(segmentPlane, pos);\n }\n vec4 focusPlaneColor = laserLineProfile(focusPlaneDistance);\n vec4 focusSphereColor = laserLineProfile(focusSphereDistance);\n vec4 segmentColor = laserLineProfile(segmentDistance);\n float focusPlaneAlpha = 1.0 - smoothstep(0.995, 0.999, abs(dot(normal, focusPlane.xyz)));\n float focusSphereAlpha = 1.0 - smoothstep(0.995, 0.999, abs(dot(normal, normalize(pos - focusSphere.xyz))));\n float segmentAlpha = 1.0 - smoothstep(0.995, 0.999, abs(dot(normal, segmentPlane.xyz)));\n vec4 color = max(\n focusPlaneColor * focusPlaneAlpha,\n max(\n focusSphereColor * focusSphereAlpha,\n segmentColor * segmentAlpha\n )\n );\n gl_FragColor = color * globalAlpha * depthDiscontinuityAlpha;\n}"
},
offscreen: {
"composite.frag": "#include <util/fsPrecision.glsl>\nuniform sampler2D tex;\nvarying vec2 vtc;\nvoid main() {\n gl_FragColor = texture2D(tex, vtc);\n}",
"compositeOccluded.frag": "#include <util/fsPrecision.glsl>\nuniform sampler2D occludedColorMap;\nuniform float opacity;\nvarying vec2 vtc;\nvoid main() {\n vec4 occludedColor = texture2D(occludedColorMap, vtc);\n gl_FragColor = occludedColor * opacity;\n}",
"compositeTransparentToHUDVisibility.frag": "#include <util/fsPrecision.glsl>\nuniform sampler2D tex;\nvarying vec2 vtc;\nvoid main() {\n gl_FragColor = vec4(1.0 - texture2D(tex, vtc).a);\n}",
"offscreen.vert": "#include <util/vsPrecision.glsl>\nattribute vec2 position;\nvarying vec2 vtc;\nvoid main(void) {\n gl_Position = vec4(position.xy, 0.0, 1.0);\n vtc = position.xy * 0.5 + 0.5;\n}"
}
},
util: {
"alignPixel.glsl": "vec4 alignToPixelCenter(vec4 clipCoord, vec2 widthHeight) {\n vec2 xy = vec2(.500123) + .5 * clipCoord.xy / clipCoord.w;\n vec2 pixelSz = vec2(1.0) / widthHeight;\n vec2 ij = (floor(xy * widthHeight) + vec2(0.5)) * pixelSz;\n vec2 result = (ij * 2.0 - vec2(1.0)) * clipCoord.w;\n return vec4(result, clipCoord.zw);\n}\nvec4 alignToPixelOrigin(vec4 clipCoord, vec2 widthHeight) {\n vec2 xy = vec2(.5) + .5 * clipCoord.xy / clipCoord.w;\n vec2 pixelSz = vec2(1.0) / widthHeight;\n vec2 ij = floor((xy + .5 * pixelSz) * widthHeight) * pixelSz;\n vec2 result = (ij * 2.0 - vec2(1.0)) * clipCoord.w;\n return vec4(result, clipCoord.zw);\n}",
"color.glsl": "vec4 premultiplyAlpha(vec4 v) {\n return vec4(v.rgb * v.a, v.a);\n}\nvec3 rgb2hsv(vec3 c) {\n vec4 K = vec4(0.0, -1.0 / 3.0, 2.0 / 3.0, -1.0);\n vec4 p = c.g < c.b ? vec4(c.bg, K.wz) : vec4(c.gb, K.xy);\n vec4 q = c.r < p.x ? vec4(p.xyw, c.r) : vec4(c.r, p.yzx);\n float d = q.x - min(q.w, q.y);\n float e = 1.0e-10;\n return vec3(abs(q.z + (q.w - q.y) / (6.0 * d + e)), min(d / (q.x + e), 1.0), q.x);\n}\nvec3 hsv2rgb(vec3 c) {\n vec4 K = vec4(1.0, 2.0 / 3.0, 1.0 / 3.0, 3.0);\n vec3 p = abs(fract(c.xxx + K.xyz) * 6.0 - K.www);\n return c.z * mix(K.xxx, clamp(p - K.xxx, 0.0, 1.0), c.y);\n}\nfloat rgb2v(vec3 c) {\n return max(c.x, max(c.y, c.z));\n}",
"depth.glsl": "#include <util/encoding.glsl>\nfloat linearDepth(sampler2D depthTex, vec2 uv, vec2 nearFar) {\n return -(rgba2float(texture2D(depthTex, uv)) * (nearFar[1] - nearFar[0]) + nearFar[0]);\n}\nfloat calcFragDepth(const in float depth) {\n const float SLOPE_SCALE = 2.0;\n const float BIAS = 2.0 * .000015259;\n float m = max(abs(dFdx(depth)), abs(dFdy(depth)));\n float result = depth + SLOPE_SCALE * m + BIAS;\n return clamp(result, .0, .999999);\n}",
"doublePrecision.glsl": "#ifdef DOUBLE_PRECISION_REQUIRES_OBFUSCATION\nvec3 dpPlusFrc(vec3 a, vec3 b) {\n return mix(a, a + b, vec3(notEqual(b, vec3(0))));\n}\nvec3 dpMinusFrc(vec3 a, vec3 b) {\n return mix(vec3(0), a - b, vec3(notEqual(a, b)));\n}\nvec3 dpAdd(vec3 hiA, vec3 loA, vec3 hiB, vec3 loB) {\n vec3 t1 = dpPlusFrc(hiA, hiB);\n vec3 e = dpMinusFrc(t1, hiA);\n vec3 t2 = dpMinusFrc(hiB, e) + dpMinusFrc(hiA, dpMinusFrc(t1, e)) + loA + loB;\n return t1 + t2;\n}\n#else\nvec3 dpAdd(vec3 hiA, vec3 loA, vec3 hiB, vec3 loB) {\n vec3 t1 = hiA + hiB;\n vec3 e = t1 - hiA;\n vec3 t2 = ((hiB - e) + (hiA - (t1 - e))) + loA + loB;\n return t1 + t2;\n}\n#endif",
"enableExtensions.glsl": "#define EXTENSIONS_ENABLED\n#extension GL_OES_standard_derivatives : enable\n#extension GL_EXT_shader_texture_lod : enable",
"encoding.glsl": "const float MAX_RGBA_FLOAT =\n 255.0 / 256.0 +\n 255.0 / 256.0 / 256.0 +\n 255.0 / 256.0 / 256.0 / 256.0 +\n 255.0 / 256.0 / 256.0 / 256.0 / 256.0;\nconst vec4 fixedPointFactors = vec4(1.0, 256.0, 256.0 * 256.0, 256.0 * 256.0 * 256.0);\nvec4 float2rgba(const float value) {\n float valueInValidDomain = clamp(value, 0.0, MAX_RGBA_FLOAT);\n vec4 fixedPointU8 = floor(fract(valueInValidDomain * fixedPointFactors) * 256.0);\n const float toU8AsFloat = 1.0 / 255.0;\n return fixedPointU8 * toU8AsFloat;\n}\nconst vec4 rgba2float_factors = vec4(\n 255.0 / (256.0),\n 255.0 / (256.0 * 256.0),\n 255.0 / (256.0 * 256.0 * 256.0),\n 255.0 / (256.0 * 256.0 * 256.0 * 256.0)\n);\nfloat rgba2float(vec4 rgba) {\n return dot(rgba, rgba2float_factors);\n}",
"fsPrecision.glsl": "#ifdef GL_FRAGMENT_PRECISION_HIGH\nprecision highp float;\nprecision highp sampler2D;\n#else\nprecision mediump float;\nprecision mediump sampler2D;\n#endif",
"highlight.glsl": "vec4 highlightData(vec4 fragCoord, sampler2D depthTex, vec4 viewportPixelSize) {\n float sceneDepth = texture2D(depthTex, (fragCoord.xy - viewportPixelSize.xy) * viewportPixelSize.zw).r;\n if (fragCoord.z > sceneDepth + 5e-7) {\n return vec4(1.0, 1.0, 0.0, 1.0);\n }\n else {\n return vec4(1.0, 0.0, 1.0, 1.0);\n }\n}",
"hud.glsl": "#include <util/screenSizePerspective.glsl>\nattribute vec3 position;\nattribute vec3 normal;\nattribute vec4 auxpos1;\nuniform mat4 proj;\nuniform mat4 view;\nuniform mat4 viewNormal;\nuniform mat4 model;\nuniform mat4 modelNormal;\nuniform vec4 viewport;\nuniform vec3 camPos;\nuniform float polygonOffset;\nuniform float cameraGroundRelative;\nuniform float pixelRatio;\nuniform float perDistancePixelRatio;\n#ifdef VERTICAL_OFFSET\nuniform vec4 verticalOffset;\n#endif\n#ifdef SCREEN_SIZE_PERSPECTIVE\nuniform vec4 screenSizePerspectiveAlignment;\n#endif\nuniform sampler2D hudVisibilityTexture;\nconst float SMALL_OFFSET_ANGLE = 0.984807753012208;\nstruct ProjectHUDAux {\n vec3 posModel;\n vec3 posView;\n vec3 vnormal;\n float distanceToCamera;\n float absCosAngle;\n};\nfloat applyHUDViewDependentPolygonOffset(float pointGroundDistance, float absCosAngle, inout vec3 posView) {\n float pointGroundSign = sign(pointGroundDistance);\n if (pointGroundSign == 0.0) {\n pointGroundSign = cameraGroundRelative;\n }\n float groundRelative = cameraGroundRelative * pointGroundSign;\n if (polygonOffset > .0) {\n float cosAlpha = clamp(absCosAngle, 0.01, 1.0);\n float tanAlpha = sqrt(1.0 - cosAlpha * cosAlpha) / cosAlpha;\n float factor = (1.0 - tanAlpha / viewport[2]);\n if (groundRelative > 0.0) {\n posView *= factor;\n }\n else {\n posView /= factor;\n }\n }\n return groundRelative;\n}\nvoid applyHUDVerticalGroundOffset(vec3 normalModel, inout vec3 posModel, inout vec3 posView) {\n float distanceToCamera = length(posView);\n float pixelOffset = distanceToCamera * perDistancePixelRatio * 0.5;\n vec3 modelOffset = normalModel * cameraGroundRelative * pixelOffset;\n vec3 viewOffset = (viewNormal * vec4(modelOffset, 1.0)).xyz;\n posModel += modelOffset;\n posView += viewOffset;\n}\nvec4 projectPositionHUD(out ProjectHUDAux aux) {\n vec3 centerOffset = auxpos1.xyz;\n float pointGroundDistance = auxpos1.w;\n aux.posModel = (model * vec4(position, 1.0)).xyz;\n aux.posView = (view * vec4(aux.posModel, 1.0)).xyz;\n aux.vnormal = (modelNormal * vec4(normal, 1.0)).xyz;\n applyHUDVerticalGroundOffset(aux.vnormal, aux.posModel, aux.posView);\n aux.distanceToCamera = length(aux.posView);\n vec3 viewDirObjSpace = normalize(camPos - aux.posModel);\n float cosAngle = dot(aux.vnormal, viewDirObjSpace);\n aux.absCosAngle = abs(cosAngle);\n#ifdef SCREEN_SIZE_PERSPECTIVE\n#if defined(VERTICAL_OFFSET) || defined(CENTER_OFFSET_UNITS_SCREEN)\n vec4 perspectiveFactor = screenSizePerspectiveScaleFactor(aux.absCosAngle, aux.distanceToCamera, screenSizePerspectiveAlignment);\n#endif\n#endif\n#ifdef VERTICAL_OFFSET\n#ifdef SCREEN_SIZE_PERSPECTIVE\n float verticalOffsetScreenHeight = applyScreenSizePerspectiveScaleFactorFloat(verticalOffset.x, perspectiveFactor);\n#else\n float verticalOffsetScreenHeight = verticalOffset.x;\n#endif\n float worldOffset = clamp(verticalOffsetScreenHeight * verticalOffset.y * aux.distanceToCamera, verticalOffset.z, verticalOffset.w);\n vec3 modelOffset = aux.vnormal * worldOffset;\n aux.posModel += modelOffset;\n vec3 viewOffset = (viewNormal * vec4(modelOffset, 1.0)).xyz;\n aux.posView += viewOffset;\n pointGroundDistance += worldOffset;\n#endif\n float groundRelative = applyHUDViewDependentPolygonOffset(pointGroundDistance, aux.absCosAngle, aux.posView);\n#ifndef CENTER_OFFSET_UNITS_SCREEN\n aux.posView += vec3(centerOffset.x, centerOffset.y, 0.0);\n if (centerOffset.z != 0.0) {\n aux.posView -= normalize(aux.posView) * centerOffset.z;\n }\n#endif\n vec4 posProj = proj * vec4(aux.posView, 1.0);\n#ifdef CENTER_OFFSET_UNITS_SCREEN\n#ifdef SCREEN_SIZE_PERSPECTIVE\n float centerOffsetY = applyScreenSizePerspectiveScaleFactorFloat(centerOffset.y, perspectiveFactor);\n#else\n float centerOffsetY = centerOffset.y;\n#endif\n posProj.xy += vec2(centerOffset.x, centerOffsetY) * pixelRatio * 2.0 / viewport.zw * posProj.w;\n#endif\n posProj.z -= groundRelative * polygonOffset * posProj.w;\n return posProj;\n}\nuniform float uRenderTransparentlyOccludedHUD;\nbool testVisibilityHUD(vec4 posProj) {\n vec4 posProjCenter = alignToPixelCenter(posProj, viewport.zw);\n vec4 occlusionPixel = texture2D(hudVisibilityTexture, .5 + .5 * posProjCenter.xy / posProjCenter.w);\n if (uRenderTransparentlyOccludedHUD > 0.5) {\n return occlusionPixel.r * occlusionPixel.g > 0.0 && occlusionPixel.g * uRenderTransparentlyOccludedHUD < 1.0;\n }\n return occlusionPixel.r * occlusionPixel.g > 0.0 && occlusionPixel.g == 1.0;\n}",
"quad.vert": "#include <util/vsPrecision.glsl>\nattribute vec2 position;\nvarying vec2 uv;\nvoid main(void) {\n gl_Position = vec4(position.x, position.y, .0, 1.0);\n uv = position * .5 + vec2(.5);\n}",
"screenSizePerspective.glsl": "float screenSizePerspectiveMinSize(float size, vec4 factor) {\n float nonZeroSize = 1.0 - step(size, 0.0);\n return (\n factor.z * (\n 1.0 +\n nonZeroSize *\n 2.0 * factor.w / (\n size + (1.0 - nonZeroSize)\n )\n )\n );\n}\nfloat screenSizePerspectiveViewAngleDependentFactor(float absCosAngle) {\n return absCosAngle * absCosAngle * absCosAngle;\n}\nvec4 screenSizePerspectiveScaleFactor(float absCosAngle, float distanceToCamera, vec4 params) {\n return vec4(min(params.x / (distanceToCamera - params.y), 1.0), screenSizePerspectiveViewAngleDependentFactor(absCosAngle), params.z, params.w);\n}\nfloat applyScreenSizePerspectiveScaleFactorFloat(float size, vec4 factor) {\n return max(mix(size * factor.x, size, factor.y), screenSizePerspectiveMinSize(size, factor));\n}\nfloat screenSizePerspectiveScaleFloat(float size, float absCosAngle, float distanceToCamera, vec4 params) {\n return applyScreenSizePerspectiveScaleFactorFloat(size, screenSizePerspectiveScaleFactor(absCosAngle, distanceToCamera, params));\n}\nvec2 applyScreenSizePerspectiveScaleFactorVec2(vec2 size, vec4 factor) {\n return mix(size * clamp(factor.x, screenSizePerspectiveMinSize(size.y, factor) / size.y, 1.0), size, factor.y);\n}\nvec2 screenSizePerspectiveScaleVec2(vec2 size, float absCosAngle, float distanceToCamera, vec4 params) {\n return applyScreenSizePerspectiveScaleFactorVec2(size, screenSizePerspectiveScaleFactor(absCosAngle, distanceToCamera, params));\n}",
"slice.glsl": "#ifdef SLICE\nuniform vec3 slicePlaneOrigin;\nuniform vec3 slicePlaneBasis1;\nuniform vec3 slicePlaneBasis2;\nstruct SliceFactors {\n float front;\n float side0;\n float side1;\n float side2;\n float side3;\n};\nSliceFactors calculateSliceFactors(vec3 pos) {\n vec3 rel = pos - slicePlaneOrigin;\n vec3 slicePlaneNormal = -cross(slicePlaneBasis1, slicePlaneBasis2);\n float slicePlaneW = -dot(slicePlaneNormal, slicePlaneOrigin);\n float basis1Len2 = dot(slicePlaneBasis1, slicePlaneBasis1);\n float basis2Len2 = dot(slicePlaneBasis2, slicePlaneBasis2);\n float basis1Dot = dot(slicePlaneBasis1, rel);\n float basis2Dot = dot(slicePlaneBasis2, rel);\n return SliceFactors(\n dot(slicePlaneNormal, pos) + slicePlaneW,\n -basis1Dot - basis1Len2,\n basis1Dot - basis1Len2,\n -basis2Dot - basis2Len2,\n basis2Dot - basis2Len2\n );\n}\nbool sliceByFactors(SliceFactors factors) {\n return factors.front < 0.0\n && factors.side0 < 0.0\n && factors.side1 < 0.0\n && factors.side2 < 0.0\n && factors.side3 < 0.0;\n}\nbool sliceByPlane(vec3 pos) {\n return sliceByFactors(calculateSliceFactors(pos));\n}\n#ifdef EXTENSIONS_ENABLED\nvec4 applySliceHighlight(vec4 color, vec3 pos) {\n SliceFactors factors = calculateSliceFactors(pos);\n if (sliceByFactors(factors)) {\n return color;\n }\n const float HIGHLIGHT_WIDTH = 1.0;\n const vec4 HIGHLIGHT_COLOR = vec4(0.0, 0.0, 0.0, 0.3);\n factors.front /= (2.0 * HIGHLIGHT_WIDTH) * fwidth(factors.front);\n factors.side0 /= (2.0 * HIGHLIGHT_WIDTH) * fwidth(factors.side0);\n factors.side1 /= (2.0 * HIGHLIGHT_WIDTH) * fwidth(factors.side1);\n factors.side2 /= (2.0 * HIGHLIGHT_WIDTH) * fwidth(factors.side2);\n factors.side3 /= (2.0 * HIGHLIGHT_WIDTH) * fwidth(factors.side3);\n float highlightFactor = (1.0 - step(0.5, factors.front))\n * (1.0 - step(0.5, factors.side0))\n * (1.0 - step(0.5, factors.side1))\n * (1.0 - step(0.5, factors.side2))\n * (1.0 - step(0.5, factors.side3));\n return mix(color, vec4(HIGHLIGHT_COLOR.rgb, color.a), highlightFactor * HIGHLIGHT_COLOR.a);\n}\n#else\n#endif\n#define rejectBySlice(_pos_) sliceByPlane(_pos_)\n#define discardBySlice(_pos_) { if (sliceByPlane(_pos_)) discard; }\n#ifdef SLICE_HIGHLIGHT_DISABLED\n#define highlightSlice(_color_, _pos_) (_color_)\n#else\n#define highlightSlice(_color_, _pos_) applySliceHighlight(_color_, _pos_)\n#endif\n#else\n#define rejectBySlice(_pos_) false\n#define discardBySlice(_pos_) {}\n#define highlightSlice(_color_, _pos_) (_color_)\n#endif",
"transform.glsl": "vec4 transformPosition(mat4 proj, mat4 view, vec3 pos) {\n return proj * (view * vec4(pos, 1.0));\n}\nvec4 transformPositionWithDepth(mat4 proj, mat4 view, vec3 pos, vec2 nearFar, out float depth) {\n vec4 eye = view * vec4(pos, 1.0);\n depth = (-eye.z - nearFar[0]) / (nearFar[1] - nearFar[0]) ;\n return proj * eye;\n}",
"visualVariables.glsl": "#ifdef VV_COLOR\n #define VV_COLOR_N 8\n uniform float vvColorValues[VV_COLOR_N];\n uniform vec4 vvColorColors[VV_COLOR_N];\n#endif\n#ifdef VV_SIZE\n uniform vec3 vvSizeMinSize;\n uniform vec3 vvSizeMaxSize;\n uniform vec3 vvSizeOffset;\n uniform vec3 vvSizeFactor;\n uniform mat3 vvSymbolRotationMatrix;\n uniform vec3 vvSymbolAnchor;\n vec3 vvGetScale(vec4 featureAttribute) {\n return clamp(vvSizeOffset + featureAttribute.x * vvSizeFactor, vvSizeMinSize, vvSizeMaxSize);\n }\n vec4 vvTransformPosition(vec3 position, vec4 featureAttribute) {\n return vec4(vvSymbolRotationMatrix * (vvGetScale(featureAttribute) * (position + vvSymbolAnchor)), 1.0);\n }\n vec4 vvTransformNormal(vec3 normal, vec4 featureAttribute) {\n return vec4(vvSymbolRotationMatrix * normal / vvGetScale(featureAttribute), 1.0);\n }\n#endif\n#ifdef VV_COLOR\n vec4 vvGetColor(vec4 featureAttribute, float values[VV_COLOR_N], vec4 colors[VV_COLOR_N]) {\n float value = featureAttribute.y;\n if (value <= values[0]) {\n return colors[0];\n }\n for (int i = 1; i < VV_COLOR_N; ++i) {\n if (values[i] >= value) {\n float f = (value - values[i-1]) / (values[i] - values[i-1]);\n return mix(colors[i-1], colors[i], f);\n }\n }\n return colors[VV_COLOR_N - 1];\n }\n#endif",
"vsPrecision.glsl": "precision highp float;\nprecision highp sampler2D;"
}
};
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/interactive/Manipulator3D.js":
/*!***********************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/interactive/Manipulator3D.js ***!
\***********************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViewsInteractiveManipulator3DJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../core/tsSupport/decorateHelper */
"./node_modules/arcgis-js-api/core/tsSupport/decorateHelper.js"), __webpack_require__(
/*! ../../core/tsSupport/declareExtendsHelper */
"./node_modules/arcgis-js-api/core/tsSupport/declareExtendsHelper.js"), __webpack_require__(
/*! ../../core/tsSupport/assignHelper */
"./node_modules/arcgis-js-api/core/tsSupport/assignHelper.js"), __webpack_require__(
/*! ../../core/Accessor */
"./node_modules/arcgis-js-api/core/Accessor.js"), __webpack_require__(
/*! ../../core/compilerUtils */
"./node_modules/arcgis-js-api/core/compilerUtils.js"), __webpack_require__(
/*! ../../core/Evented */
"./node_modules/arcgis-js-api/core/Evented.js"), __webpack_require__(
/*! ../../core/maybe */
"./node_modules/arcgis-js-api/core/maybe.js"), __webpack_require__(
/*! ../../core/screenUtils */
"./node_modules/arcgis-js-api/core/screenUtils.js"), __webpack_require__(
/*! ../../core/accessorSupport/decorators */
"./node_modules/arcgis-js-api/core/accessorSupport/decorators.js"), __webpack_require__(
/*! ../../core/accessorSupport/ensureType */
"./node_modules/arcgis-js-api/core/accessorSupport/ensureType.js"), __webpack_require__(
/*! ../../core/libs/gl-matrix-2/mat3 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/mat3.js"), __webpack_require__(
/*! ../../core/libs/gl-matrix-2/mat3f64 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/mat3f64.js"), __webpack_require__(
/*! ../../core/libs/gl-matrix-2/mat4 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/mat4.js"), __webpack_require__(
/*! ../../core/libs/gl-matrix-2/mat4f64 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/mat4f64.js"), __webpack_require__(
/*! ../../core/libs/gl-matrix-2/vec2 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec2.js"), __webpack_require__(
/*! ../../core/libs/gl-matrix-2/vec2f32 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec2f32.js"), __webpack_require__(
/*! ../../core/libs/gl-matrix-2/vec3 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec3.js"), __webpack_require__(
/*! ../../core/libs/gl-matrix-2/vec3f64 */
"./node_modules/arcgis-js-api/core/libs/gl-matrix-2/vec3f64.js"), __webpack_require__(
/*! ../../geometry/support/aaBoundingRect */
"./node_modules/arcgis-js-api/geometry/support/aaBoundingRect.js"), __webpack_require__(
/*! ../../layers/graphics/dehydratedFeatures */
"./node_modules/arcgis-js-api/layers/graphics/dehydratedFeatures.js"), __webpack_require__(
/*! ../3d/support/geometryUtils */
"./node_modules/arcgis-js-api/views/3d/support/geometryUtils.js"), __webpack_require__(
/*! ../3d/support/projectionUtils */
"./node_modules/arcgis-js-api/views/3d/support/projectionUtils.js"), __webpack_require__(
/*! ../3d/support/stack */
"./node_modules/arcgis-js-api/views/3d/support/stack.js"), __webpack_require__(
/*! ../3d/webgl-engine/lib/Intersector */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/Intersector.js"), __webpack_require__(
/*! ../3d/webgl-engine/lib/intersectorUtils */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/intersectorUtils.js"), __webpack_require__(
/*! ../3d/webgl-engine/lib/Layer */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/Layer.js"), __webpack_require__(
/*! ../3d/webgl-engine/lib/Object3D */
"./node_modules/arcgis-js-api/views/3d/webgl-engine/lib/Object3D.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (e, t, r, i, n, o, s, a, c, l, p, u, d, h, f, g, _, y, b, m, v, P, S, O, j, R, T, A, w) {
function M(e) {
return 0 !== e[12] || 0 !== e[13] || 0 !== e[14];
}
Object.defineProperty(t, "__esModule", {
value: !0
});
var E = function (e) {
function t(t) {
var r = e.call(this, t) || this;
return r.hideOnGrab = !1, r.moveOnDrag = !0, r.snapToPointer = !0, r.collisionType = {
type: "point"
}, r.collisionPriority = 0, r.renderObjects = [], r.autoScaleRenderObjects = !0, r._radius = 10, r._worldSized = !1, r._focusMultiplier = 2, r._touchMultiplier = 2.5, r.interactive = !0, r.selectable = !1, r.cursor = null, r.dragging = !1, r._areAnyEngineObjectsVisible = !1, r.events = new a({
target: r
}), r._position = m.vec3f64.create(), r._modelTransform = g.mat4f64.create(), r._dragOffset = null, r._dirtyScreenPoint = l.createScreenPoint(), r._dirtyScreenPointArray = l.createScreenPointArray(), r._dirtyRenderScreenPointArray = l.createRenderScreenPointArray3(), r._dirtyOriginScreenPointArray = l.createScreenPointArray(), r._dirtyScreenPixelSize = 1, r._screenPositionDirty = !0, r._engineResourcesAddedToStage = !1, r._engineResources = null, r._attached = !1, r._engineLayerId = null, r._materialIdReferences = null, r._hitResult = {
onSurface: !1,
surfaceType: "ground"
}, r;
}
return i(t, e), t.prototype.initialize = function () {
var e = this;
this._intersector = new R(this.view.viewingMode), this._mapPoint = P.makeDehydratedPoint(0, 0, 0, this.view.spatialReference), this.events.on("drag", function (t) {
return e.drag(t);
});
}, t.prototype.destroy = function () {
this._removeResourcesFromStage(), this._engineResources = null, this._set("view", null), this._camera = null;
}, Object.defineProperty(t.prototype, "alignment", {
get: function get() {
return this._get("alignment");
},
set: function set(e) {
this._set("alignment", e), this.constructed && this._refreshMapPoint();
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(t.prototype, "visible", {
set: function set(e) {
e !== this._get("visible") && (this._set("visible", e), this._updateEngineObject());
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(t.prototype, "radius", {
get: function get() {
return this._radius;
},
set: function set(e) {
e !== this._radius && (this._radius = e, this._updateEngineObject());
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(t.prototype, "worldSized", {
get: function get() {
return this._worldSized;
},
set: function set(e) {
e !== this._worldSized && (this._worldSized = e, this._updateEngineObject());
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(t.prototype, "focusMultiplier", {
get: function get() {
return this._focusMultiplier;
},
set: function set(e) {
this._focusMultiplier = e;
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(t.prototype, "touchMultiplier", {
get: function get() {
return this._touchMultiplier;
},
set: function set(e) {
this._touchMultiplier = e;
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(t.prototype, "modelTransform", {
get: function get() {
return this._modelTransform;
},
set: function set(e) {
M(e) && (this._screenPositionDirty = !0), f.mat4.copy(this._modelTransform, e), this._updateEngineObject();
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(t.prototype, "position", {
get: function get() {
return this._position;
},
set: function set(e) {
this.view.renderCoordsHelper.fromRenderCoords(e, this._mapPoint, this._mapPoint.spatialReference), this._refreshMapPoint();
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(t.prototype, "mapPoint", {
get: function get() {
return this._mapPoint;
},
set: function set(e) {
P.clonePoint(e, this._mapPoint), this._refreshMapPoint();
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(t.prototype, "grabbing", {
set: function set(e) {
e !== this._get("grabbing") && (this._set("grabbing", e), this._updateEngineObject()), e || (this._dragOffset = null);
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(t.prototype, "hovering", {
set: function set(e) {
e !== this._get("hovering") && (this._set("hovering", e), this._updateEngineObject());
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(t.prototype, "selected", {
set: function set(e) {
e !== this._get("selected") && (this._set("selected", e), this._updateEngineObject());
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(t.prototype, "state", {
set: function set(e) {
e !== this._get("state") && (this._set("state", e), this._updateEngineObject());
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(t.prototype, "areAnyEngineObjectsVisible", {
get: function get() {
return this._areAnyEngineObjectsVisible;
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(t.prototype, "surfaceType", {
get: function get() {
return this._hitResult.onSurface ? this._hitResult.surfaceType : null;
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(t.prototype, "focused", {
get: function get() {
return this._focused;
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(t.prototype, "_focused", {
get: function get() {
return this._get("hovering") || this._get("grabbing");
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(t.prototype, "screenPoint", {
get: function get() {
return this._updateScreenSpaceProperties(), this._dirtyScreenPoint;
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(t.prototype, "_screenPointArray", {
get: function get() {
return this._updateScreenSpaceProperties(), this._dirtyScreenPointArray;
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(t.prototype, "_renderScreenPointArray", {
get: function get() {
return this._updateScreenSpaceProperties(), this._dirtyRenderScreenPointArray;
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(t.prototype, "_originScreenPointArray", {
get: function get() {
return this._updateScreenSpaceProperties(), this._dirtyOriginScreenPointArray;
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(t.prototype, "_screenPixelSize", {
get: function get() {
return this._updateScreenSpaceProperties(), this._dirtyScreenPixelSize;
},
enumerable: !0,
configurable: !0
}), t.prototype._updateScreenSpaceProperties = function () {
if (this._screenPositionDirty) {
this._screenPositionDirty = !1, this._dirtyScreenPixelSize = this._camera.computeScreenPixelSizeAt(this._position);
var e,
t = M(this._modelTransform);
if (t) {
var r = this._calculateModelTransformOffset(U);
e = b.vec3.add(r, r, this._position);
} else e = this._position;
this._camera.projectPoint(e, this._dirtyRenderScreenPointArray), this._camera.renderToScreen(this._dirtyRenderScreenPointArray, this._dirtyScreenPointArray), l.screenPointArrayToObject(this._dirtyScreenPointArray, this._dirtyScreenPoint), t ? (this._camera.projectPoint(this._position, D), this._camera.renderToScreen(D, this._dirtyOriginScreenPointArray)) : _.vec2.copy(this._dirtyOriginScreenPointArray, this._dirtyScreenPointArray);
}
}, t.prototype.intersectionDistance = function (e, t) {
if (!this._get("visible")) return null;
var r = l.screenPointObjectToArray(e, x),
i = this._getCollisionRadius(t),
n = -1 * this._get("collisionPriority");
switch (this.collisionType.type) {
case "point":
if (_.vec2.squaredDistance(this._screenPointArray, r) < i * i) return this._renderScreenPointArray[2] + n;
break;
case "line":
for (var o = this.collisionType.paths, a = this._getWorldToScreenObjectScale(), c = this._calculateObjectTransform(a, N), p = i * this._screenPixelSize, u = S.ray.fromScreen(this._camera, r, C), h = 0, f = o; h < f.length; h++) {
var g = f[h];
if (0 !== g.length) for (var y = b.vec3.transformMat4(H, g[0], c), m = 1; m < g.length; m++) {
var v = b.vec3.transformMat4(V, g[m], c),
P = S.lineSegment.closestRayDistance2(S.lineSegment.fromPoints(y, v, z), u);
if (null != P && P < p * p) {
var O = b.vec3.add(j.sv3d.get(), y, v);
b.vec3.scale(O, O, .5);
var R = l.castRenderScreenPointArray(j.sv3d.get());
return this._camera.projectPoint(O, R), R[2] + n;
}
b.vec3.copy(y, v);
}
}
break;
case "disc":
var T = this.collisionType.direction,
a = this._getWorldToScreenObjectScale(),
c = this._calculateObjectTransform(a, N),
p = i * this._screenPixelSize,
u = S.ray.fromScreen(this._camera, r, C),
A = d.mat3.fromMat4(k, c),
w = b.vec3.transformMat3(B, T, A),
M = this._calculateModelTransformPosition(G);
S.plane.fromPositionAndNormal(M, w, F);
var E = W;
if (S.plane.intersectRay(F, u, E) && b.vec3.squaredDistance(E, M) < p * p) return this._renderScreenPointArray[2] + n;
break;
case "ribbon":
var I = this.collisionType,
o = I.paths,
T = I.direction,
a = this._getWorldToScreenObjectScale(),
c = this._calculateObjectTransform(a, N),
p = i * this._camera.computeScreenPixelSizeAt(this._position),
u = S.ray.fromScreen(this._camera, r, C),
A = d.mat3.fromMat4(k, c),
w = b.vec3.transformMat3(B, T, A),
M = this._calculateModelTransformPosition(G);
S.plane.fromPositionAndNormal(M, w, F);
var E = W;
if (!S.plane.intersectRay(F, u, E)) break;
for (var D = 0, L = o; D < L.length; D++) {
var g = L[D];
if (0 !== g.length) for (var y = b.vec3.transformMat4(H, g[0], c), m = 1; m < g.length; m++) {
var v = b.vec3.transformMat4(V, g[m], c),
P = S.lineSegment.distance2(S.lineSegment.fromPoints(y, v, z), E);
if (null != P && P < p * p) {
var O = b.vec3.add(j.sv3d.get(), y, v);
b.vec3.scale(O, O, .5);
var R = l.castRenderScreenPointArray(j.sv3d.get());
return this._camera.projectPoint(O, R), R[2] + n;
}
b.vec3.copy(y, v);
}
}
break;
default:
s.neverReached(this.collisionType);
}
return null;
}, t.prototype.drag = function (e) {
if (this.moveOnDrag) {
var t = l.screenPointObjectToArray(e.screenPoint, x);
c.isNone(this._dragOffset) && this.grabbing && !this.snapToPointer && (this._dragOffset = _.vec2.subtract(y.vec2f32.create(), t, this._originScreenPointArray)), c.isSome(this._dragOffset) && _.vec2.subtract(t, t, this._dragOffset), this.view.sceneIntersectionHelper.intersectToolIntersectorScreen(t, this._intersector, "on-the-ground" === this.alignment ? I : null);
var r = this._intersector.results.min,
i = W;
r.getIntersectionPoint(i) ? (this.position = i, this._hitResult.onSurface = !0, this._hitResult.surfaceType = "TerrainRenderer" === r.intersector ? "ground" : "feature") : this._hitResult.onSurface = !1;
}
}, t.prototype.attach = function (e) {
if (void 0 === e && (e = {
manipulator3D: {}
}), this.view._stage) {
var t = e.manipulator3D;
if (this._engineLayerId = t.engineLayerId, c.isNone(this._engineLayerId)) {
var r = new A("manipulator-3d", {
isPickable: !1
});
this.view._stage.add(0, r), this.view._stage.addToViewContent([r.id]), this._engineLayerId = r.id, t.engineLayerId = r.id;
}
t.engineLayerReferences = (t.engineLayerReferences || 0) + 1, this._materialIdReferences = t.materialIdReferences, c.isNone(this._materialIdReferences) && (this._materialIdReferences = new Map(), t.materialIdReferences = this._materialIdReferences), this._camera = this.view.state.camera, this._attached = !0, this._updateEngineObject(), O.canProject(this._mapPoint.spatialReference, this.view.spatialReference) || (this.mapPoint = P.makeDehydratedPoint(0, 0, 0, this.view.spatialReference));
}
}, t.prototype.detach = function (e) {
void 0 === e && (e = {
manipulator3D: {}
});
var t = e.manipulator3D;
t.engineLayerReferences--;
var r = 0 === t.engineLayerReferences;
r && (t.engineLayerId = null), this._removeResourcesFromStage(r), this._engineResources = null, this._engineLayerId = null, this._materialIdReferences = null, this._camera = null, this._attached = !1;
}, t.prototype.onViewChange = function () {
this._camera = this.view.state.camera, this._screenPositionDirty = !0, this._updateEngineObject();
}, t.prototype.onElevationChange = function (e) {
this.view.renderCoordsHelper.fromRenderCoords(this.position, q, e.spatialReference) && v.containsPoint(e.extent, q) && this._refreshMapPoint(!0);
}, t.prototype._refreshMapPoint = function (e) {
switch (void 0 === e && (e = !1), this.alignment) {
case "none":
break;
case "on-the-ground":
var t = this.view.elevationProvider.getElevation(this.mapPoint, "ground");
if (!(t !== this._mapPoint.z || !e)) return;
this._mapPoint.z = t;
break;
default:
s.neverReached(this.alignment);
}
this._screenPositionDirty = !0, this._hitResult.onSurface = !1, this.view.renderCoordsHelper.toRenderCoords(this._mapPoint, this._position), this._updateEngineObject();
}, t.prototype._updateEngineObject = function () {
if (this._areAnyEngineObjectsVisible = !1, this._attached) {
if (!1 === this._get("visible")) return void this._removeResourcesFromStage();
var e = this._getWorldToScreenObjectScale(),
t = N;
if (!0 === this._get("autoScaleRenderObjects")) {
var r = this._getFocusedSize(this._radius, this._focused) * e;
this._calculateObjectTransform(r, t);
} else this._calculateObjectTransform(e, t);
for (var i = this._ensureEngineResources().objectsByState, n = (this._focused ? 2 : 1) | (this._get("selected") ? 8 : 4), o = this._get("hideOnGrab") && this._get("grabbing"), s = 0, a = i; s < a.length; s++) {
var c = a[s],
l = c.stateMask,
p = c.objects;
if (o) for (var u = 0, d = p; u < d.length; u++) {
var h = d[u];
h.hideAllComponents();
} else {
var f = 0 != (15 & l),
g = 0 != (65520 & l),
_ = !f || (n & l) == (15 & l),
y = !g || (this._get("state") & l) == (65520 & l);
if (_ && y) for (var b = 0, m = p; b < m.length; b++) {
var h = m[b];
h.unhideAllComponents(), h.objectTransformation = t, this._areAnyEngineObjectsVisible = !0;
} else for (var v = 0, P = p; v < P.length; v++) {
var h = P[v];
h.hideAllComponents();
}
}
}
}
}, t.prototype._ensureEngineResources = function () {
if (c.isNone(this._engineResources)) {
var e = this.view._stage.getContent(0, c.expect(this._engineLayerId)),
t = [],
r = new Set();
this.renderObjects.forEach(function (e) {
var i = e.material;
r.has(i) || (t.push(i), r.add(i));
});
var i = function i(e, t) {
var r = t.geometry,
i = t.material,
n = t.transform;
Array.isArray(r) ? r.forEach(function (t) {
return e.addGeometry(t, i, n);
}) : e.addGeometry(r, i, n);
},
n = new Map();
this.renderObjects.forEach(function (e) {
var t = new w({
idHint: "manipulator"
});
i(t, e);
var r = e.stateMask || 0,
o = n.get(r) || [];
o.push(t), n.set(r, o);
});
var o = [];
n.forEach(function (e, t) {
o.push({
stateMask: t,
objects: e
});
}), this._engineResources = {
objectsByState: o,
layer: e,
materials: t
};
}
return this._addResourcesToStage(), this._engineResources;
}, t.prototype._addResourcesToStage = function () {
var e = this;
if (!this._engineResourcesAddedToStage && !c.isNone(this._engineResources)) {
var t = this._engineResources,
r = t.objectsByState,
i = t.layer;
t.materials.forEach(function (t) {
var r = c.expect(e._materialIdReferences),
i = r.get(t.id) || 0;
0 === i && e.view._stage.add(3, t), r.set(t.id, i + 1);
}), r.forEach(function (t) {
t.objects.forEach(function (t) {
i.addObject(t), e.view._stage.add(1, t);
});
}), this._engineResourcesAddedToStage = !0;
}
}, t.prototype._removeResourcesFromStage = function (e) {
var t = this;
if (void 0 === e && (e = !1), this._engineResourcesAddedToStage && !c.isNone(this._engineResources)) {
var r = this._engineResources,
i = r.objectsByState,
n = r.layer,
o = r.materials;
i.forEach(function (e) {
e.objects.forEach(function (e) {
n.removeObject(e), t.view._stage.remove(1, e.id);
});
}), o.forEach(function (e) {
var r = c.expect(t._materialIdReferences),
i = r.get(e.id);
1 === i ? (t.view._stage.remove(3, e.id), r["delete"](e.id)) : r.set(e.id, i - 1);
}), e && this.view._stage.remove(0, n.id), this._engineResourcesAddedToStage = !1;
}
}, t.prototype._getCollisionRadius = function (e) {
return this._getFocusedSize(this._radius, !0) * ("touch" === e ? this._touchMultiplier : 1);
}, t.prototype._getFocusedSize = function (e, t) {
return e * (t ? this._focusMultiplier : 1);
}, t.prototype._getWorldToScreenObjectScale = function () {
return this._worldSized ? 1 : this._screenPixelSize;
}, t.prototype._calculateModelTransformPosition = function (e) {
var t = this._getWorldToScreenObjectScale(),
r = this._calculateObjectTransform(t, L);
return b.vec3.set(e, r[12], r[13], r[14]);
}, t.prototype._calculateModelTransformOffset = function (e) {
var t = this._calculateModelTransformPosition(e);
return b.vec3.subtract(e, t, this._position);
}, t.prototype._calculateObjectTransform = function (e, t) {
return f.mat4.set(t, e, 0, 0, 0, 0, e, 0, 0, 0, 0, e, 0, 0, 0, 0, 1), f.mat4.multiply(t, t, this._modelTransform), t[12] += this._position[0], t[13] += this._position[1], t[14] += this._position[2], t[15] = 1, t;
}, r([p.property({
constructOnly: !0,
nonNullable: !0
})], t.prototype, "view", void 0), r([p.property({
value: "none",
nonNullable: !0
})], t.prototype, "alignment", null), r([p.property()], t.prototype, "hideOnGrab", void 0), r([p.property()], t.prototype, "moveOnDrag", void 0), r([p.property()], t.prototype, "snapToPointer", void 0), r([p.property()], t.prototype, "collisionType", void 0), r([p.property({
type: u.Integer
})], t.prototype, "collisionPriority", void 0), r([p.property({
constructOnly: !0
})], t.prototype, "renderObjects", void 0), r([p.property()], t.prototype, "autoScaleRenderObjects", void 0), r([p.property({
value: !0
})], t.prototype, "visible", null), r([p.property()], t.prototype, "radius", null), r([p.property()], t.prototype, "worldSized", null), r([p.property()], t.prototype, "focusMultiplier", null), r([p.property()], t.prototype, "touchMultiplier", null), r([p.property()], t.prototype, "interactive", void 0), r([p.property()], t.prototype, "selectable", void 0), r([p.property()], t.prototype, "cursor", void 0), r([p.property({
value: !1
})], t.prototype, "grabbing", null), r([p.property()], t.prototype, "dragging", void 0), r([p.property({
value: !1
})], t.prototype, "hovering", null), r([p.property({
value: !1
})], t.prototype, "selected", null), r([p.property({
value: 0
})], t.prototype, "state", null), r([p.property({
dependsOn: ["hovering", "grabbing"]
})], t.prototype, "focused", null), t = r([p.subclass("esri.views.interactive.Manipulator3D")], t);
}(p.declared(o));
t.Manipulator3D = E;
var I = {
include: new Set()
};
I.include.add(T.TERRAIN_ID);
var x = l.createScreenPointArray(),
D = l.createRenderScreenPointArray3(),
z = S.lineSegment.create(),
C = S.ray.create(),
k = h.mat3f64.create(),
L = g.mat4f64.create(),
N = g.mat4f64.create(),
F = S.plane.create(),
H = m.vec3f64.create(),
V = m.vec3f64.create(),
W = m.vec3f64.create(),
B = m.vec3f64.create(),
G = m.vec3f64.create(),
U = m.vec3f64.create(),
q = m.vec3f64.create();
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/overlay/LineOverlayItem.js":
/*!*********************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/overlay/LineOverlayItem.js ***!
\*********************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViewsOverlayLineOverlayItemJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../core/tsSupport/declareExtendsHelper */
"./node_modules/arcgis-js-api/core/tsSupport/declareExtendsHelper.js"), __webpack_require__(
/*! ../../core/tsSupport/decorateHelper */
"./node_modules/arcgis-js-api/core/tsSupport/decorateHelper.js"), __webpack_require__(
/*! ../../core/Accessor */
"./node_modules/arcgis-js-api/core/Accessor.js"), __webpack_require__(
/*! ../../core/accessorSupport/decorators */
"./node_modules/arcgis-js-api/core/accessorSupport/decorators.js"), __webpack_require__(
/*! ../../libs/maquette/index */
"./node_modules/arcgis-js-api/libs/maquette/index.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (t, e, r, i, o, s, n) {
var p = function (t) {
function e(e) {
var r = t.call(this, e) || this;
return r.startX = 0, r.startY = 0, r.endX = 0, r.endY = 0, r.width = 1, r.color = [0, 0, 0, .5], r.visible = !0, r;
}
return r(e, t), Object.defineProperty(e.prototype, "startPosition", {
get: function get() {
return [this.startX, this.startY];
},
set: function set(t) {
this._set("startX", t[0]), this._set("startY", t[1]);
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(e.prototype, "endPosition", {
get: function get() {
return [this.endX, this.endY];
},
set: function set(t) {
this._set("endX", t[0]), this._set("endY", t[1]);
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(e.prototype, "strokeStyle", {
get: function get() {
var t = this.color;
return "rgba(" + t[0] + ", " + t[1] + ", " + t[2] + ", " + t[3] + ")";
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(e.prototype, "lineCap", {
get: function get() {
return "round";
},
enumerable: !0,
configurable: !0
}), e.prototype.render = function () {
var t = this.calculateCoordinates(a),
e = t.height,
r = t.left,
i = t.top,
o = t.width,
s = t.x1,
p = t.x2,
h = t.y1,
d = t.y2,
l = "stroke: " + this.strokeStyle + "; stroke-width: " + this.width + "; stroke-linecap: " + this.lineCap + ";";
return n.h("div", {
classes: {
"esri-line-overlay-item": !0
},
styles: {
left: r + "px",
top: i + "px",
width: o + "px",
height: e + "px",
visibility: this.visible ? "visible" : "hidden"
}
}, [n.h("svg", {
width: o,
height: e
}, [n.h("line", {
x1: s,
y1: h,
x2: p,
y2: d,
style: l
})])]);
}, e.prototype.renderCanvas = function (t) {
if (this.visible) {
t.strokeStyle = this.strokeStyle, t.lineWidth = this.width, t.lineCap = this.lineCap;
var e = this.calculateCoordinates(a);
t.beginPath(), t.moveTo(e.left + e.x1, e.top + e.y1), t.lineTo(e.left + e.x2, e.top + e.y2), t.stroke();
}
}, e.prototype.calculateCoordinates = function (t) {
var e = Math.min(this.startX, this.endX),
r = Math.max(this.startX, this.endX),
i = Math.min(this.startY, this.endY),
o = Math.max(this.startY, this.endY),
s = this.width;
return t.left = e - s, t.top = i - s, t.width = r - e + 2 * s, t.height = Math.max(20, o - i + 2 * s), t.x1 = this.startX - e + s, t.y1 = this.startY - i + s, t.x2 = this.endX - e + s, t.y2 = this.endY - i + s, t;
}, i([s.property()], e.prototype, "startX", void 0), i([s.property()], e.prototype, "startY", void 0), i([s.property()], e.prototype, "endX", void 0), i([s.property()], e.prototype, "endY", void 0), i([s.property({
dependsOn: ["startX", "startY"]
})], e.prototype, "startPosition", null), i([s.property({
dependsOn: ["endX", "endY"]
})], e.prototype, "endPosition", null), i([s.property()], e.prototype, "width", void 0), i([s.property()], e.prototype, "color", void 0), i([s.property()], e.prototype, "visible", void 0), i([s.property({
readOnly: !0,
dependsOn: ["color"]
})], e.prototype, "strokeStyle", null), e = i([s.subclass("esri.views.overlay.LineOverlayItem")], e);
}(s.declared(o)),
a = {
left: 0,
top: 0,
width: 0,
height: 0,
x1: 0,
y1: 0,
x2: 0,
y2: 0
};
return p;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
},
/***/
"./node_modules/arcgis-js-api/views/overlay/TextOverlayItem.js":
/*!*********************************************************************!*\
!*** ./node_modules/arcgis-js-api/views/overlay/TextOverlayItem.js ***!
\*********************************************************************/
/*! no static exports found */
/***/
function node_modulesArcgisJsApiViewsOverlayTextOverlayItemJs(module, exports, __webpack_require__) {
var __WEBPACK_AMD_DEFINE_ARRAY__, __WEBPACK_AMD_DEFINE_RESULT__; // COPYRIGHT © 2019 Esri
//
// All rights reserved under the copyright laws of the United States
// and applicable international laws, treaties, and conventions.
//
// This material is licensed for use under the Esri Master License
// Agreement (MLA), and is bound by the terms of that agreement.
// You may redistribute and use this code without modification,
// provided you adhere to the terms of the MLA and include this
// copyright notice.
//
// See use restrictions at http://www.esri.com/legal/pdfs/mla_e204_e300/english
//
// For additional information, contact:
// Environmental Systems Research Institute, Inc.
// Attn: Contracts and Legal Services Department
// 380 New York Street
// Redlands, California, USA 92373
// USA
//
// email: contracts@esri.com
//
// See http://js.arcgis.com/4.14/esri/copyright.txt for details.
!(__WEBPACK_AMD_DEFINE_ARRAY__ = [__webpack_require__.dj.c(module.i), exports, __webpack_require__(
/*! ../../core/tsSupport/declareExtendsHelper */
"./node_modules/arcgis-js-api/core/tsSupport/declareExtendsHelper.js"), __webpack_require__(
/*! ../../core/tsSupport/decorateHelper */
"./node_modules/arcgis-js-api/core/tsSupport/decorateHelper.js"), __webpack_require__(
/*! ../../core/Accessor */
"./node_modules/arcgis-js-api/core/Accessor.js"), __webpack_require__(
/*! ../../core/accessorSupport/decorators */
"./node_modules/arcgis-js-api/core/accessorSupport/decorators.js"), __webpack_require__(
/*! ../../libs/maquette/index */
"./node_modules/arcgis-js-api/libs/maquette/index.js")], __WEBPACK_AMD_DEFINE_RESULT__ = function (t, e, o, r, i, n, l) {
for (var s = {
bottom: "esri-text-overlay-item-anchor-bottom",
"bottom-right": "esri-text-overlay-item-anchor-bottom-right",
"bottom-left": "esri-text-overlay-item-anchor-bottom-left",
top: "esri-text-overlay-item-anchor-top",
"top-right": "esri-text-overlay-item-anchor-top-right",
"top-left": "esri-text-overlay-item-anchor-top-left",
center: "esri-text-overlay-item-anchor-center",
right: "esri-text-overlay-item-anchor-right",
left: "esri-text-overlay-item-anchor-left"
}, a = function (t) {
function e(e) {
var o = t.call(this, e) || this;
return o.x = 0, o.y = 0, o.text = "-", o.fontSize = 14, o.anchor = "center", o.visible = !0, o.backgroundColor = "rgba(0, 0, 0, 0.6)", o.textColor = "white", o.textShadowColor = [0, 0, 0], o.textShadowSize = 1, o;
}
return o(e, t), Object.defineProperty(e.prototype, "position", {
get: function get() {
return [this.x, this.y];
},
set: function set(t) {
this._set("x", t[0]), this._set("y", t[1]);
},
enumerable: !0,
configurable: !0
}), Object.defineProperty(e.prototype, "padding", {
get: function get() {
return .5 * this.fontSize;
},
enumerable: !0,
configurable: !0
}), e.prototype.render = function () {
return l.h("div", {
classes: this._cssClasses(),
styles: {
left: Math.floor(this.x) + "px",
top: Math.floor(this.y) + "px",
visibility: this.visible ? "visible" : "hidden",
fontSize: this.fontSize + "px",
backgroundColor: this.backgroundColor,
color: this.textColor,
padding: this.padding + "px",
borderRadius: this.padding + "px",
textShadow: "0 0 " + this.textShadowSize + "px rgb(" + this.textShadowColor[0] + ", " + this.textShadowColor[1] + ", " + this.textShadowColor[2] + ")"
}
}, [this.text]);
}, e.prototype.renderCanvas = function (t) {
if (this.visible) {
var e = t.font.replace(/^(.*?)px/, "");
t.font = this.fontSize + "px " + e;
var o = this.padding,
r = this.padding,
i = t.measureText(this.text).width,
n = this.fontSize,
l = h[this.anchor];
t.textAlign = "center", t.textBaseline = "middle";
var s = i + 2 * o,
a = n + 2 * o,
p = this.x + l.x * s,
x = this.y + l.y * a;
this.roundedRect(t, p, x, s, a, r), t.fillStyle = this.backgroundColor, t.fill();
var d = this.x + (l.x + .5) * s,
c = this.y + (l.y + .5) * a;
this._renderTextShadow(t, this.text, d, c), t.fillStyle = this.textColor, t.fillText(this.text, d, c);
}
}, e.prototype._renderTextShadow = function (t, e, o, r) {
t.lineJoin = "miter", t.fillStyle = "rgba(" + this.textShadowColor[0] + ", " + this.textShadowColor[1] + ", " + this.textShadowColor[2] + ", " + 1 / p.length + ")";
for (var i = this.textShadowSize, n = 0, l = p; n < l.length; n++) {
var s = l[n],
a = s[0],
h = s[1];
t.fillText(e, o + i * a, r + i * h);
}
}, e.prototype.roundedRect = function (t, e, o, r, i, n) {
t.beginPath(), t.moveTo(e, o + n), t.arcTo(e, o, e + n, o, n), t.lineTo(e + r - n, o), t.arcTo(e + r, o, e + r, o + n, n), t.lineTo(e + r, o + i - n), t.arcTo(e + r, o + i, e + r - n, o + i, n), t.lineTo(e + n, o + i), t.arcTo(e, o + i, e, o + i - n, n), t.closePath();
}, e.prototype._cssClasses = function () {
var t = {
"esri-text-overlay-item": !0
};
for (var e in s) t[s[e]] = this.anchor === e;
return t;
}, r([n.property()], e.prototype, "x", void 0), r([n.property()], e.prototype, "y", void 0), r([n.property({
dependsOn: ["x", "y"]
})], e.prototype, "position", null), r([n.property()], e.prototype, "text", void 0), r([n.property()], e.prototype, "fontSize", void 0), r([n.property()], e.prototype, "anchor", void 0), r([n.property()], e.prototype, "visible", void 0), r([n.property({
dependsOn: ["fontSize"]
})], e.prototype, "padding", null), e = r([n.subclass("esri.views.overlay.TextOverlayItem")], e);
}(n.declared(i)), h = {
bottom: {
x: -.5,
y: -1,
textAlign: "center",
textBaseline: "bottom"
},
"bottom-left": {
x: 0,
y: -1,
textAlign: "left",
textBaseline: "bottom"
},
"bottom-right": {
x: -1,
y: -1,
textAlign: "right",
textBaseline: "bottom"
},
center: {
x: -.5,
y: -.5,
textAlign: "center",
textBaseline: "middle"
},
left: {
x: 0,
y: -.5,
textAlign: "left",
textBaseline: "middle"
},
right: {
x: -1,
y: -.5,
textAlign: "right",
textBaseline: "middle"
},
top: {
x: -.5,
y: 0,
textAlign: "center",
textBaseline: "top"
},
"top-left": {
x: 0,
y: 0,
textAlign: "left",
textBaseline: "top"
},
"top-right": {
x: -1,
y: 0,
textAlign: "right",
textBaseline: "top"
}
}, p = [], x = 0; x < 360; x += 22.5) p.push([Math.cos(Math.PI * x / 180), Math.sin(Math.PI * x / 180)]);
return a;
}.apply(null, __WEBPACK_AMD_DEFINE_ARRAY__), __WEBPACK_AMD_DEFINE_RESULT__ !== undefined && (module.exports = __WEBPACK_AMD_DEFINE_RESULT__));
/***/
}
}]);
//# sourceMappingURL=27-es5.js.map