/** * @module ol/format/GML3 */ import GML2 from './GML2.js'; import GMLBase, {GMLNS} from './GMLBase.js'; import LineString from '../geom/LineString.js'; import MultiLineString from '../geom/MultiLineString.js'; import MultiPolygon from '../geom/MultiPolygon.js'; import Polygon from '../geom/Polygon.js'; import { OBJECT_PROPERTY_NODE_FACTORY, XML_SCHEMA_INSTANCE_URI, createElementNS, getAllTextContent, makeArrayExtender, makeArrayPusher, makeChildAppender, makeReplacer, makeSimpleNodeFactory, parseNode, pushParseAndPop, pushSerializeAndPop, } from '../xml.js'; import {createOrUpdate} from '../extent.js'; import {extend} from '../array.js'; import {get as getProjection} from '../proj.js'; import {readNonNegativeIntegerString, writeStringTextNode} from './xsd.js'; import { transformExtentWithOptions, transformGeometryWithOptions, } from './Feature.js'; /** * @const * @type {string} * @private */ const schemaLocation = GMLNS + ' http://schemas.opengis.net/gml/3.1.1/profiles/gmlsfProfile/' + '1.0.0/gmlsf.xsd'; /** * @const * @type {Object} */ const MULTIGEOMETRY_TO_MEMBER_NODENAME = { 'MultiLineString': 'lineStringMember', 'MultiCurve': 'curveMember', 'MultiPolygon': 'polygonMember', 'MultiSurface': 'surfaceMember', }; /** * @classdesc * Feature format for reading and writing data in the GML format * version 3.1.1. * Currently only supports GML 3.1.1 Simple Features profile. * * @api */ class GML3 extends GMLBase { /** * @param {import("./GMLBase.js").Options} [options] Optional configuration object. */ constructor(options) { options = options ? options : {}; super(options); /** * @private * @type {boolean} */ this.surface_ = options.surface !== undefined ? options.surface : false; /** * @private * @type {boolean} */ this.curve_ = options.curve !== undefined ? options.curve : false; /** * @private * @type {boolean} */ this.multiCurve_ = options.multiCurve !== undefined ? options.multiCurve : true; /** * @private * @type {boolean} */ this.multiSurface_ = options.multiSurface !== undefined ? options.multiSurface : true; /** * @type {string} */ this.schemaLocation = options.schemaLocation ? options.schemaLocation : schemaLocation; /** * @private * @type {boolean} */ this.hasZ = options.hasZ !== undefined ? options.hasZ : false; } /** * @param {Element} node Node. * @param {Array<*>} objectStack Object stack. * @return {MultiLineString|undefined} MultiLineString. */ readMultiCurve(node, objectStack) { /** @type {Array} */ const lineStrings = pushParseAndPop( [], this.MULTICURVE_PARSERS, node, objectStack, this ); if (lineStrings) { const multiLineString = new MultiLineString(lineStrings); return multiLineString; } return undefined; } /** * @param {Element} node Node. * @param {Array<*>} objectStack Object stack. * @return {Array|undefined} Polygon. */ readFlatCurveRing(node, objectStack) { /** @type {Array} */ const lineStrings = pushParseAndPop( [], this.MULTICURVE_PARSERS, node, objectStack, this ); const flatCoordinates = []; for (let i = 0, ii = lineStrings.length; i < ii; ++i) { extend(flatCoordinates, lineStrings[i].getFlatCoordinates()); } return flatCoordinates; } /** * @param {Element} node Node. * @param {Array<*>} objectStack Object stack. * @return {MultiPolygon|undefined} MultiPolygon. */ readMultiSurface(node, objectStack) { /** @type {Array} */ const polygons = pushParseAndPop( [], this.MULTISURFACE_PARSERS, node, objectStack, this ); if (polygons) { return new MultiPolygon(polygons); } } /** * @param {Element} node Node. * @param {Array<*>} objectStack Object stack. */ curveMemberParser(node, objectStack) { parseNode(this.CURVEMEMBER_PARSERS, node, objectStack, this); } /** * @param {Element} node Node. * @param {Array<*>} objectStack Object stack. */ surfaceMemberParser(node, objectStack) { parseNode(this.SURFACEMEMBER_PARSERS, node, objectStack, this); } /** * @param {Element} node Node. * @param {Array<*>} objectStack Object stack. * @return {Array<(Array)>|undefined} flat coordinates. */ readPatch(node, objectStack) { return pushParseAndPop( [null], this.PATCHES_PARSERS, node, objectStack, this ); } /** * @param {Element} node Node. * @param {Array<*>} objectStack Object stack. * @return {Array|undefined} flat coordinates. */ readSegment(node, objectStack) { return pushParseAndPop([], this.SEGMENTS_PARSERS, node, objectStack, this); } /** * @param {Element} node Node. * @param {Array<*>} objectStack Object stack. * @return {Array<(Array)>|undefined} flat coordinates. */ readPolygonPatch(node, objectStack) { return pushParseAndPop( [null], this.FLAT_LINEAR_RINGS_PARSERS, node, objectStack, this ); } /** * @param {Element} node Node. * @param {Array<*>} objectStack Object stack. * @return {Array|undefined} flat coordinates. */ readLineStringSegment(node, objectStack) { return pushParseAndPop( [null], this.GEOMETRY_FLAT_COORDINATES_PARSERS, node, objectStack, this ); } /** * @param {Element} node Node. * @param {Array<*>} objectStack Object stack. */ interiorParser(node, objectStack) { /** @type {Array|undefined} */ const flatLinearRing = pushParseAndPop( undefined, this.RING_PARSERS, node, objectStack, this ); if (flatLinearRing) { const flatLinearRings = /** @type {Array>} */ (objectStack[objectStack.length - 1]); flatLinearRings.push(flatLinearRing); } } /** * @param {Element} node Node. * @param {Array<*>} objectStack Object stack. */ exteriorParser(node, objectStack) { /** @type {Array|undefined} */ const flatLinearRing = pushParseAndPop( undefined, this.RING_PARSERS, node, objectStack, this ); if (flatLinearRing) { const flatLinearRings = /** @type {Array>} */ (objectStack[objectStack.length - 1]); flatLinearRings[0] = flatLinearRing; } } /** * @param {Element} node Node. * @param {Array<*>} objectStack Object stack. * @return {Polygon|undefined} Polygon. */ readSurface(node, objectStack) { /** @type {Array>} */ const flatLinearRings = pushParseAndPop( [null], this.SURFACE_PARSERS, node, objectStack, this ); if (flatLinearRings && flatLinearRings[0]) { const flatCoordinates = flatLinearRings[0]; const ends = [flatCoordinates.length]; let i, ii; for (i = 1, ii = flatLinearRings.length; i < ii; ++i) { extend(flatCoordinates, flatLinearRings[i]); ends.push(flatCoordinates.length); } return new Polygon(flatCoordinates, 'XYZ', ends); } return undefined; } /** * @param {Element} node Node. * @param {Array<*>} objectStack Object stack. * @return {LineString|undefined} LineString. */ readCurve(node, objectStack) { /** @type {Array} */ const flatCoordinates = pushParseAndPop( [null], this.CURVE_PARSERS, node, objectStack, this ); if (flatCoordinates) { const lineString = new LineString(flatCoordinates, 'XYZ'); return lineString; } return undefined; } /** * @param {Element} node Node. * @param {Array<*>} objectStack Object stack. * @return {import("../extent.js").Extent|undefined} Envelope. */ readEnvelope(node, objectStack) { /** @type {Array} */ const flatCoordinates = pushParseAndPop( [null], this.ENVELOPE_PARSERS, node, objectStack, this ); return createOrUpdate( flatCoordinates[1][0], flatCoordinates[1][1], flatCoordinates[2][0], flatCoordinates[2][1] ); } /** * @param {Node} node Node. * @param {Array<*>} objectStack Object stack. * @return {Array|undefined} Flat coordinates. */ readFlatPos(node, objectStack) { let s = getAllTextContent(node, false); const re = /^\s*([+\-]?\d*\.?\d+(?:[eE][+\-]?\d+)?)\s*/; /** @type {Array} */ const flatCoordinates = []; let m; while ((m = re.exec(s))) { flatCoordinates.push(parseFloat(m[1])); s = s.substr(m[0].length); } if (s !== '') { return undefined; } const context = objectStack[0]; const containerSrs = context['srsName']; let axisOrientation = 'enu'; if (containerSrs) { const proj = getProjection(containerSrs); axisOrientation = proj.getAxisOrientation(); } if (axisOrientation === 'neu') { let i, ii; for (i = 0, ii = flatCoordinates.length; i < ii; i += 3) { const y = flatCoordinates[i]; const x = flatCoordinates[i + 1]; flatCoordinates[i] = x; flatCoordinates[i + 1] = y; } } const len = flatCoordinates.length; if (len == 2) { flatCoordinates.push(0); } if (len === 0) { return undefined; } return flatCoordinates; } /** * @param {Element} node Node. * @param {Array<*>} objectStack Object stack. * @return {Array|undefined} Flat coordinates. */ readFlatPosList(node, objectStack) { const s = getAllTextContent(node, false).replace(/^\s*|\s*$/g, ''); const context = objectStack[0]; const containerSrs = context['srsName']; const contextDimension = context['srsDimension']; let axisOrientation = 'enu'; if (containerSrs) { const proj = getProjection(containerSrs); axisOrientation = proj.getAxisOrientation(); } const coords = s.split(/\s+/); // The "dimension" attribute is from the GML 3.0.1 spec. let dim = 2; if (node.getAttribute('srsDimension')) { dim = readNonNegativeIntegerString(node.getAttribute('srsDimension')); } else if (node.getAttribute('dimension')) { dim = readNonNegativeIntegerString(node.getAttribute('dimension')); } else if ( /** @type {Element} */ (node.parentNode).getAttribute('srsDimension') ) { dim = readNonNegativeIntegerString( /** @type {Element} */ (node.parentNode).getAttribute('srsDimension') ); } else if (contextDimension) { dim = readNonNegativeIntegerString(contextDimension); } let x, y, z; const flatCoordinates = []; for (let i = 0, ii = coords.length; i < ii; i += dim) { x = parseFloat(coords[i]); y = parseFloat(coords[i + 1]); z = dim === 3 ? parseFloat(coords[i + 2]) : 0; if (axisOrientation.substr(0, 2) === 'en') { flatCoordinates.push(x, y, z); } else { flatCoordinates.push(y, x, z); } } return flatCoordinates; } /** * @param {Element} node Node. * @param {import("../geom/Point.js").default} value Point geometry. * @param {Array<*>} objectStack Node stack. * @private */ writePos_(node, value, objectStack) { const context = objectStack[objectStack.length - 1]; const hasZ = context['hasZ']; const srsDimension = hasZ ? '3' : '2'; node.setAttribute('srsDimension', srsDimension); const srsName = context['srsName']; let axisOrientation = 'enu'; if (srsName) { axisOrientation = getProjection(srsName).getAxisOrientation(); } const point = value.getCoordinates(); let coords; // only 2d for simple features profile if (axisOrientation.substr(0, 2) === 'en') { coords = point[0] + ' ' + point[1]; } else { coords = point[1] + ' ' + point[0]; } if (hasZ) { // For newly created points, Z can be undefined. const z = point[2] || 0; coords += ' ' + z; } writeStringTextNode(node, coords); } /** * @param {Array} point Point geometry. * @param {string} [srsName] Optional srsName * @param {boolean} [hasZ] whether the geometry has a Z coordinate (is 3D) or not. * @return {string} The coords string. * @private */ getCoords_(point, srsName, hasZ) { let axisOrientation = 'enu'; if (srsName) { axisOrientation = getProjection(srsName).getAxisOrientation(); } let coords = axisOrientation.substr(0, 2) === 'en' ? point[0] + ' ' + point[1] : point[1] + ' ' + point[0]; if (hasZ) { // For newly created points, Z can be undefined. const z = point[2] || 0; coords += ' ' + z; } return coords; } /** * @param {Element} node Node. * @param {LineString|import("../geom/LinearRing.js").default} value Geometry. * @param {Array<*>} objectStack Node stack. * @private */ writePosList_(node, value, objectStack) { const context = objectStack[objectStack.length - 1]; const hasZ = context['hasZ']; const srsDimension = hasZ ? '3' : '2'; node.setAttribute('srsDimension', srsDimension); const srsName = context['srsName']; // only 2d for simple features profile const points = value.getCoordinates(); const len = points.length; const parts = new Array(len); let point; for (let i = 0; i < len; ++i) { point = points[i]; parts[i] = this.getCoords_(point, srsName, hasZ); } writeStringTextNode(node, parts.join(' ')); } /** * @param {Element} node Node. * @param {import("../geom/Point.js").default} geometry Point geometry. * @param {Array<*>} objectStack Node stack. */ writePoint(node, geometry, objectStack) { const context = objectStack[objectStack.length - 1]; const srsName = context['srsName']; if (srsName) { node.setAttribute('srsName', srsName); } const pos = createElementNS(node.namespaceURI, 'pos'); node.appendChild(pos); this.writePos_(pos, geometry, objectStack); } /** * @param {Element} node Node. * @param {import("../extent.js").Extent} extent Extent. * @param {Array<*>} objectStack Node stack. */ writeEnvelope(node, extent, objectStack) { const context = objectStack[objectStack.length - 1]; const srsName = context['srsName']; if (srsName) { node.setAttribute('srsName', srsName); } const keys = ['lowerCorner', 'upperCorner']; const values = [extent[0] + ' ' + extent[1], extent[2] + ' ' + extent[3]]; pushSerializeAndPop( /** @type {import("../xml.js").NodeStackItem} */ ({node: node}), this.ENVELOPE_SERIALIZERS, OBJECT_PROPERTY_NODE_FACTORY, values, objectStack, keys, this ); } /** * @param {Element} node Node. * @param {import("../geom/LinearRing.js").default} geometry LinearRing geometry. * @param {Array<*>} objectStack Node stack. */ writeLinearRing(node, geometry, objectStack) { const context = objectStack[objectStack.length - 1]; const srsName = context['srsName']; if (srsName) { node.setAttribute('srsName', srsName); } const posList = createElementNS(node.namespaceURI, 'posList'); node.appendChild(posList); this.writePosList_(posList, geometry, objectStack); } /** * @param {*} value Value. * @param {Array<*>} objectStack Object stack. * @param {string} [nodeName] Node name. * @return {Node} Node. * @private */ RING_NODE_FACTORY_(value, objectStack, nodeName) { const context = objectStack[objectStack.length - 1]; const parentNode = context.node; const exteriorWritten = context['exteriorWritten']; if (exteriorWritten === undefined) { context['exteriorWritten'] = true; } return createElementNS( parentNode.namespaceURI, exteriorWritten !== undefined ? 'interior' : 'exterior' ); } /** * @param {Element} node Node. * @param {Polygon} geometry Polygon geometry. * @param {Array<*>} objectStack Node stack. */ writeSurfaceOrPolygon(node, geometry, objectStack) { const context = objectStack[objectStack.length - 1]; const hasZ = context['hasZ']; const srsName = context['srsName']; if (node.nodeName !== 'PolygonPatch' && srsName) { node.setAttribute('srsName', srsName); } if (node.nodeName === 'Polygon' || node.nodeName === 'PolygonPatch') { const rings = geometry.getLinearRings(); pushSerializeAndPop( {node: node, hasZ: hasZ, srsName: srsName}, this.RING_SERIALIZERS, this.RING_NODE_FACTORY_, rings, objectStack, undefined, this ); } else if (node.nodeName === 'Surface') { const patches = createElementNS(node.namespaceURI, 'patches'); node.appendChild(patches); this.writeSurfacePatches_(patches, geometry, objectStack); } } /** * @param {Element} node Node. * @param {LineString} geometry LineString geometry. * @param {Array<*>} objectStack Node stack. */ writeCurveOrLineString(node, geometry, objectStack) { const context = objectStack[objectStack.length - 1]; const srsName = context['srsName']; if (node.nodeName !== 'LineStringSegment' && srsName) { node.setAttribute('srsName', srsName); } if ( node.nodeName === 'LineString' || node.nodeName === 'LineStringSegment' ) { const posList = createElementNS(node.namespaceURI, 'posList'); node.appendChild(posList); this.writePosList_(posList, geometry, objectStack); } else if (node.nodeName === 'Curve') { const segments = createElementNS(node.namespaceURI, 'segments'); node.appendChild(segments); this.writeCurveSegments_(segments, geometry, objectStack); } } /** * @param {Element} node Node. * @param {MultiPolygon} geometry MultiPolygon geometry. * @param {Array<*>} objectStack Node stack. */ writeMultiSurfaceOrPolygon(node, geometry, objectStack) { const context = objectStack[objectStack.length - 1]; const hasZ = context['hasZ']; const srsName = context['srsName']; const surface = context['surface']; if (srsName) { node.setAttribute('srsName', srsName); } const polygons = geometry.getPolygons(); pushSerializeAndPop( {node: node, hasZ: hasZ, srsName: srsName, surface: surface}, this.SURFACEORPOLYGONMEMBER_SERIALIZERS, this.MULTIGEOMETRY_MEMBER_NODE_FACTORY_, polygons, objectStack, undefined, this ); } /** * @param {Element} node Node. * @param {import("../geom/MultiPoint.js").default} geometry MultiPoint geometry. * @param {Array<*>} objectStack Node stack. */ writeMultiPoint(node, geometry, objectStack) { const context = objectStack[objectStack.length - 1]; const srsName = context['srsName']; const hasZ = context['hasZ']; if (srsName) { node.setAttribute('srsName', srsName); } const points = geometry.getPoints(); pushSerializeAndPop( {node: node, hasZ: hasZ, srsName: srsName}, this.POINTMEMBER_SERIALIZERS, makeSimpleNodeFactory('pointMember'), points, objectStack, undefined, this ); } /** * @param {Element} node Node. * @param {MultiLineString} geometry MultiLineString geometry. * @param {Array<*>} objectStack Node stack. */ writeMultiCurveOrLineString(node, geometry, objectStack) { const context = objectStack[objectStack.length - 1]; const hasZ = context['hasZ']; const srsName = context['srsName']; const curve = context['curve']; if (srsName) { node.setAttribute('srsName', srsName); } const lines = geometry.getLineStrings(); pushSerializeAndPop( {node: node, hasZ: hasZ, srsName: srsName, curve: curve}, this.LINESTRINGORCURVEMEMBER_SERIALIZERS, this.MULTIGEOMETRY_MEMBER_NODE_FACTORY_, lines, objectStack, undefined, this ); } /** * @param {Element} node Node. * @param {import("../geom/LinearRing.js").default} ring LinearRing geometry. * @param {Array<*>} objectStack Node stack. */ writeRing(node, ring, objectStack) { const linearRing = createElementNS(node.namespaceURI, 'LinearRing'); node.appendChild(linearRing); this.writeLinearRing(linearRing, ring, objectStack); } /** * @param {Node} node Node. * @param {Polygon} polygon Polygon geometry. * @param {Array<*>} objectStack Node stack. */ writeSurfaceOrPolygonMember(node, polygon, objectStack) { const child = this.GEOMETRY_NODE_FACTORY_(polygon, objectStack); if (child) { node.appendChild(child); this.writeSurfaceOrPolygon(child, polygon, objectStack); } } /** * @param {Element} node Node. * @param {import("../geom/Point.js").default} point Point geometry. * @param {Array<*>} objectStack Node stack. */ writePointMember(node, point, objectStack) { const child = createElementNS(node.namespaceURI, 'Point'); node.appendChild(child); this.writePoint(child, point, objectStack); } /** * @param {Node} node Node. * @param {LineString} line LineString geometry. * @param {Array<*>} objectStack Node stack. */ writeLineStringOrCurveMember(node, line, objectStack) { const child = this.GEOMETRY_NODE_FACTORY_(line, objectStack); if (child) { node.appendChild(child); this.writeCurveOrLineString(child, line, objectStack); } } /** * @param {Element} node Node. * @param {Polygon} polygon Polygon geometry. * @param {Array<*>} objectStack Node stack. * @private */ writeSurfacePatches_(node, polygon, objectStack) { const child = createElementNS(node.namespaceURI, 'PolygonPatch'); node.appendChild(child); this.writeSurfaceOrPolygon(child, polygon, objectStack); } /** * @param {Element} node Node. * @param {LineString} line LineString geometry. * @param {Array<*>} objectStack Node stack. * @private */ writeCurveSegments_(node, line, objectStack) { const child = createElementNS(node.namespaceURI, 'LineStringSegment'); node.appendChild(child); this.writeCurveOrLineString(child, line, objectStack); } /** * @param {Node} node Node. * @param {import("../geom/Geometry.js").default|import("../extent.js").Extent} geometry Geometry. * @param {Array<*>} objectStack Node stack. */ writeGeometryElement(node, geometry, objectStack) { const context = /** @type {import("./Feature.js").WriteOptions} */ ( objectStack[objectStack.length - 1] ); const item = Object.assign({}, context); item['node'] = node; let value; if (Array.isArray(geometry)) { value = transformExtentWithOptions( /** @type {import("../extent.js").Extent} */ (geometry), context ); } else { value = transformGeometryWithOptions( /** @type {import("../geom/Geometry.js").default} */ (geometry), true, context ); } pushSerializeAndPop( /** @type {import("../xml.js").NodeStackItem} */ (item), this.GEOMETRY_SERIALIZERS, this.GEOMETRY_NODE_FACTORY_, [value], objectStack, undefined, this ); } /** * @param {Element} node Node. * @param {import("../Feature.js").default} feature Feature. * @param {Array<*>} objectStack Node stack. */ writeFeatureElement(node, feature, objectStack) { const fid = feature.getId(); if (fid) { node.setAttribute('fid', /** @type {string} */ (fid)); } const context = /** @type {Object} */ (objectStack[objectStack.length - 1]); const featureNS = context['featureNS']; const geometryName = feature.getGeometryName(); if (!context.serializers) { context.serializers = {}; context.serializers[featureNS] = {}; } const keys = []; const values = []; if (feature.hasProperties()) { const properties = feature.getProperties(); for (const key in properties) { const value = properties[key]; if (value !== null) { keys.push(key); values.push(value); if ( key == geometryName || typeof (/** @type {?} */ (value).getSimplifiedGeometry) === 'function' ) { if (!(key in context.serializers[featureNS])) { context.serializers[featureNS][key] = makeChildAppender( this.writeGeometryElement, this ); } } else { if (!(key in context.serializers[featureNS])) { context.serializers[featureNS][key] = makeChildAppender(writeStringTextNode); } } } } } const item = Object.assign({}, context); item.node = node; pushSerializeAndPop( /** @type {import("../xml.js").NodeStackItem} */ (item), context.serializers, makeSimpleNodeFactory(undefined, featureNS), values, objectStack, keys ); } /** * @param {Node} node Node. * @param {Array} features Features. * @param {Array<*>} objectStack Node stack. * @private */ writeFeatureMembers_(node, features, objectStack) { const context = /** @type {Object} */ (objectStack[objectStack.length - 1]); const featureType = context['featureType']; const featureNS = context['featureNS']; /** @type {Object>} */ const serializers = {}; serializers[featureNS] = {}; serializers[featureNS][featureType] = makeChildAppender( this.writeFeatureElement, this ); const item = Object.assign({}, context); item.node = node; pushSerializeAndPop( /** @type {import("../xml.js").NodeStackItem} */ (item), serializers, makeSimpleNodeFactory(featureType, featureNS), features, objectStack ); } /** * @const * @param {*} value Value. * @param {Array<*>} objectStack Object stack. * @param {string} [nodeName] Node name. * @return {Node|undefined} Node. * @private */ MULTIGEOMETRY_MEMBER_NODE_FACTORY_(value, objectStack, nodeName) { const parentNode = objectStack[objectStack.length - 1].node; return createElementNS( this.namespace, MULTIGEOMETRY_TO_MEMBER_NODENAME[parentNode.nodeName] ); } /** * @const * @param {*} value Value. * @param {Array<*>} objectStack Object stack. * @param {string} [nodeName] Node name. * @return {Element|undefined} Node. * @private */ GEOMETRY_NODE_FACTORY_(value, objectStack, nodeName) { const context = objectStack[objectStack.length - 1]; const multiSurface = context['multiSurface']; const surface = context['surface']; const curve = context['curve']; const multiCurve = context['multiCurve']; if (!Array.isArray(value)) { nodeName = /** @type {import("../geom/Geometry.js").default} */ ( value ).getType(); if (nodeName === 'MultiPolygon' && multiSurface === true) { nodeName = 'MultiSurface'; } else if (nodeName === 'Polygon' && surface === true) { nodeName = 'Surface'; } else if (nodeName === 'LineString' && curve === true) { nodeName = 'Curve'; } else if (nodeName === 'MultiLineString' && multiCurve === true) { nodeName = 'MultiCurve'; } } else { nodeName = 'Envelope'; } return createElementNS(this.namespace, nodeName); } /** * Encode a geometry in GML 3.1.1 Simple Features. * * @param {import("../geom/Geometry.js").default} geometry Geometry. * @param {import("./Feature.js").WriteOptions} [options] Options. * @return {Node} Node. * @api */ writeGeometryNode(geometry, options) { options = this.adaptOptions(options); const geom = createElementNS(this.namespace, 'geom'); const context = { node: geom, hasZ: this.hasZ, srsName: this.srsName, curve: this.curve_, surface: this.surface_, multiSurface: this.multiSurface_, multiCurve: this.multiCurve_, }; if (options) { Object.assign(context, options); } this.writeGeometryElement(geom, geometry, [context]); return geom; } /** * Encode an array of features in the GML 3.1.1 format as an XML node. * * @param {Array} features Features. * @param {import("./Feature.js").WriteOptions} [options] Options. * @return {Element} Node. * @api */ writeFeaturesNode(features, options) { options = this.adaptOptions(options); const node = createElementNS(this.namespace, 'featureMembers'); node.setAttributeNS( XML_SCHEMA_INSTANCE_URI, 'xsi:schemaLocation', this.schemaLocation ); const context = { srsName: this.srsName, hasZ: this.hasZ, curve: this.curve_, surface: this.surface_, multiSurface: this.multiSurface_, multiCurve: this.multiCurve_, featureNS: this.featureNS, featureType: this.featureType, }; if (options) { Object.assign(context, options); } this.writeFeatureMembers_(node, features, [context]); return node; } } /** * @const * @type {Object>} */ GML3.prototype.GEOMETRY_FLAT_COORDINATES_PARSERS = { 'http://www.opengis.net/gml': { 'pos': makeReplacer(GML3.prototype.readFlatPos), 'posList': makeReplacer(GML3.prototype.readFlatPosList), 'coordinates': makeReplacer(GML2.prototype.readFlatCoordinates), }, }; /** * @const * @type {Object>} */ GML3.prototype.FLAT_LINEAR_RINGS_PARSERS = { 'http://www.opengis.net/gml': { 'interior': GML3.prototype.interiorParser, 'exterior': GML3.prototype.exteriorParser, }, }; /** * @const * @type {Object>} */ GML3.prototype.GEOMETRY_PARSERS = { 'http://www.opengis.net/gml': { 'Point': makeReplacer(GMLBase.prototype.readPoint), 'MultiPoint': makeReplacer(GMLBase.prototype.readMultiPoint), 'LineString': makeReplacer(GMLBase.prototype.readLineString), 'MultiLineString': makeReplacer(GMLBase.prototype.readMultiLineString), 'LinearRing': makeReplacer(GMLBase.prototype.readLinearRing), 'Polygon': makeReplacer(GMLBase.prototype.readPolygon), 'MultiPolygon': makeReplacer(GMLBase.prototype.readMultiPolygon), 'Surface': makeReplacer(GML3.prototype.readSurface), 'MultiSurface': makeReplacer(GML3.prototype.readMultiSurface), 'Curve': makeReplacer(GML3.prototype.readCurve), 'MultiCurve': makeReplacer(GML3.prototype.readMultiCurve), 'Envelope': makeReplacer(GML3.prototype.readEnvelope), }, }; /** * @const * @type {Object>} */ GML3.prototype.MULTICURVE_PARSERS = { 'http://www.opengis.net/gml': { 'curveMember': makeArrayPusher(GML3.prototype.curveMemberParser), 'curveMembers': makeArrayPusher(GML3.prototype.curveMemberParser), }, }; /** * @const * @type {Object>} */ GML3.prototype.MULTISURFACE_PARSERS = { 'http://www.opengis.net/gml': { 'surfaceMember': makeArrayPusher(GML3.prototype.surfaceMemberParser), 'surfaceMembers': makeArrayPusher(GML3.prototype.surfaceMemberParser), }, }; /** * @const * @type {Object>} */ GML3.prototype.CURVEMEMBER_PARSERS = { 'http://www.opengis.net/gml': { 'LineString': makeArrayPusher(GMLBase.prototype.readLineString), 'Curve': makeArrayPusher(GML3.prototype.readCurve), }, }; /** * @const * @type {Object>} */ GML3.prototype.SURFACEMEMBER_PARSERS = { 'http://www.opengis.net/gml': { 'Polygon': makeArrayPusher(GMLBase.prototype.readPolygon), 'Surface': makeArrayPusher(GML3.prototype.readSurface), }, }; /** * @const * @type {Object>} */ GML3.prototype.SURFACE_PARSERS = { 'http://www.opengis.net/gml': { 'patches': makeReplacer(GML3.prototype.readPatch), }, }; /** * @const * @type {Object>} */ GML3.prototype.CURVE_PARSERS = { 'http://www.opengis.net/gml': { 'segments': makeReplacer(GML3.prototype.readSegment), }, }; /** * @const * @type {Object>} */ GML3.prototype.ENVELOPE_PARSERS = { 'http://www.opengis.net/gml': { 'lowerCorner': makeArrayPusher(GML3.prototype.readFlatPosList), 'upperCorner': makeArrayPusher(GML3.prototype.readFlatPosList), }, }; /** * @const * @type {Object>} */ GML3.prototype.PATCHES_PARSERS = { 'http://www.opengis.net/gml': { 'PolygonPatch': makeReplacer(GML3.prototype.readPolygonPatch), }, }; /** * @const * @type {Object>} */ GML3.prototype.SEGMENTS_PARSERS = { 'http://www.opengis.net/gml': { 'LineStringSegment': makeArrayExtender( GML3.prototype.readLineStringSegment ), }, }; /** * @const * @type {Object>} */ GMLBase.prototype.RING_PARSERS = { 'http://www.opengis.net/gml': { 'LinearRing': makeReplacer(GMLBase.prototype.readFlatLinearRing), 'Ring': makeReplacer(GML3.prototype.readFlatCurveRing), }, }; /** * Encode an array of features in GML 3.1.1 Simple Features. * * @function * @param {Array} features Features. * @param {import("./Feature.js").WriteOptions} [options] Options. * @return {string} Result. * @api */ GML3.prototype.writeFeatures; /** * @type {Object>} */ GML3.prototype.RING_SERIALIZERS = { 'http://www.opengis.net/gml': { 'exterior': makeChildAppender(GML3.prototype.writeRing), 'interior': makeChildAppender(GML3.prototype.writeRing), }, }; /** * @type {Object>} */ GML3.prototype.ENVELOPE_SERIALIZERS = { 'http://www.opengis.net/gml': { 'lowerCorner': makeChildAppender(writeStringTextNode), 'upperCorner': makeChildAppender(writeStringTextNode), }, }; /** * @type {Object>} */ GML3.prototype.SURFACEORPOLYGONMEMBER_SERIALIZERS = { 'http://www.opengis.net/gml': { 'surfaceMember': makeChildAppender( GML3.prototype.writeSurfaceOrPolygonMember ), 'polygonMember': makeChildAppender( GML3.prototype.writeSurfaceOrPolygonMember ), }, }; /** * @type {Object>} */ GML3.prototype.POINTMEMBER_SERIALIZERS = { 'http://www.opengis.net/gml': { 'pointMember': makeChildAppender(GML3.prototype.writePointMember), }, }; /** * @type {Object>} */ GML3.prototype.LINESTRINGORCURVEMEMBER_SERIALIZERS = { 'http://www.opengis.net/gml': { 'lineStringMember': makeChildAppender( GML3.prototype.writeLineStringOrCurveMember ), 'curveMember': makeChildAppender( GML3.prototype.writeLineStringOrCurveMember ), }, }; /** * @type {Object>} */ GML3.prototype.GEOMETRY_SERIALIZERS = { 'http://www.opengis.net/gml': { 'Curve': makeChildAppender(GML3.prototype.writeCurveOrLineString), 'MultiCurve': makeChildAppender(GML3.prototype.writeMultiCurveOrLineString), 'Point': makeChildAppender(GML3.prototype.writePoint), 'MultiPoint': makeChildAppender(GML3.prototype.writeMultiPoint), 'LineString': makeChildAppender(GML3.prototype.writeCurveOrLineString), 'MultiLineString': makeChildAppender( GML3.prototype.writeMultiCurveOrLineString ), 'LinearRing': makeChildAppender(GML3.prototype.writeLinearRing), 'Polygon': makeChildAppender(GML3.prototype.writeSurfaceOrPolygon), 'MultiPolygon': makeChildAppender( GML3.prototype.writeMultiSurfaceOrPolygon ), 'Surface': makeChildAppender(GML3.prototype.writeSurfaceOrPolygon), 'MultiSurface': makeChildAppender( GML3.prototype.writeMultiSurfaceOrPolygon ), 'Envelope': makeChildAppender(GML3.prototype.writeEnvelope), }, }; export default GML3;