import Feature from '../../../../../src/ol/Feature.js'; import GML from '../../../../../src/ol/format/GML.js'; import GML2 from '../../../../../src/ol/format/GML2.js'; import GML32 from '../../../../../src/ol/format/GML32.js'; import LineString from '../../../../../src/ol/geom/LineString.js'; import LinearRing from '../../../../../src/ol/geom/LinearRing.js'; import MultiLineString from '../../../../../src/ol/geom/MultiLineString.js'; import MultiPoint from '../../../../../src/ol/geom/MultiPoint.js'; import MultiPolygon from '../../../../../src/ol/geom/MultiPolygon.js'; import Point from '../../../../../src/ol/geom/Point.js'; import Polygon from '../../../../../src/ol/geom/Polygon.js'; import {createElementNS, parse} from '../../../../../src/ol/xml.js'; import {transform} from '../../../../../src/ol/proj.js'; const readGeometry = function (format, text, opt_options) { const doc = parse(text); // we need an intermediate node for testing purposes const node = document.createElement('pre'); node.appendChild(doc.documentElement); return format.readGeometryFromNode(node, opt_options); }; describe('ol.format.GML2', function () { let format; beforeEach(function () { format = new GML2({srsName: 'CRS:84'}); }); describe('#readFeatures', function () { let features; before(function (done) { const url = 'spec/ol/format/gml/osm-wfs-10.xml'; afterLoadText(url, function (xml) { try { features = new GML2().readFeatures(xml); } catch (e) { done(e); } done(); }); }); it('reads all features', function () { expect(features.length).to.be(3); }); }); describe('#readGeometry', function () { describe('gml 2.1.2', function () { it('can read a point geometry', function () { const text = '' + ' -90,-180' + ''; const g = readGeometry(format, text); expect(g).to.be.an(Point); expect(g.getCoordinates()).to.eql([-180, -90, 0]); }); it('can read a 3D point geometry', function () { const text = '' + ' -90,-180,42' + ''; const g = readGeometry(format, text); expect(g).to.be.an(Point); expect(g.getCoordinates()).to.eql([-180, -90, 42]); }); it('can read a box element', function () { const text = '' + ' -0.768746,47.003018 ' + ' 3.002191,47.925567' + ''; const g = readGeometry(format, text); expect(g).to.eql([47.003018, -0.768746, 47.925567, 3.002191]); }); it('can read a multipolygon with gml:coordinates', function () { const text = '' + ' ' + ' ' + ' ' + ' ' + ' -0.318987,47.003018 ' + ' -0.768746,47.358268 ' + ' -0.574463,47.684285 -0.347374,47.854602 ' + ' -0.006740,47.925567 ' + ' 0.135191,47.726864 0.149384,47.599127 ' + ' 0.419052,47.670092 0.532597,47.428810 ' + ' 0.305508,47.443003 0.475824,47.144948 ' + ' 0.064225,47.201721 ' + ' -0.318987,47.003018 ' + ' ' + ' ' + ' ' + ' ' + ' -0.035126,47.485582 ' + ' -0.035126,47.485582 ' + ' -0.049319,47.641706 -0.233829,47.655899 ' + ' -0.375760,47.457196 ' + ' -0.276408,47.286879 -0.035126,47.485582 ' + ' ' + ' ' + ' ' + ' ' + ' ' + ''; const g = readGeometry(format, text); expect(g).to.be.an(MultiPolygon); expect(g.getCoordinates()).to.eql([ [ [ [47.003018, -0.318987, 0], [47.358268, -0.768746, 0], [47.684285, -0.574463, 0], [47.854602, -0.347374, 0], [47.925567, -0.00674, 0], [47.726864, 0.135191, 0], [47.599127, 0.149384, 0], [47.670092, 0.419052, 0], [47.42881, 0.532597, 0], [47.443003, 0.305508, 0], [47.144948, 0.475824, 0], [47.201721, 0.064225, 0], [47.003018, -0.318987, 0], ], [ [47.485582, -0.035126, 0], [47.485582, -0.035126, 0], [47.641706, -0.049319, 0], [47.655899, -0.233829, 0], [47.457196, -0.37576, 0], [47.286879, -0.276408, 0], [47.485582, -0.035126, 0], ], ], ]); }); }); }); describe('#writeFeatureElement', function () { let node; const featureNS = 'http://www.openlayers.org/'; beforeEach(function () { node = createElementNS(featureNS, 'layer'); }); it('can serialize a LineString', function () { const expected = '' + ' ' + ' ' + ' ' + ' 2,1.1 4.2,3' + ' ' + ' ' + ' ' + ' '; const feature = new Feature({ geometry: new LineString([ [1.1, 2], [3, 4.2], ]), }); feature.setId(1); const objectStack = [ { featureNS: featureNS, srsName: 'EPSG:4326', }, ]; format.writeFeatureElement(node, feature, objectStack); expect(node).to.xmleql(parse(expected)); }); it('can serialize a Polygon', function () { const expected = '' + ' ' + ' ' + ' ' + ' ' + ' ' + ' 2,1.1 4.2,3 6,5.2' + ' ' + ' ' + ' ' + ' ' + ' ' + ' '; const feature = new Feature({ geometry: new Polygon([ [ [1.1, 2], [3, 4.2], [5.2, 6], ], ]), }); feature.setId(1); const objectStack = [ { featureNS: featureNS, srsName: 'EPSG:4326', }, ]; format.writeFeatureElement(node, feature, objectStack); expect(node).to.xmleql(parse(expected)); }); it('can serialize a Point', function () { const expected = '' + ' ' + ' ' + ' ' + ' 2,1.1' + ' ' + ' ' + ' ' + ' '; const feature = new Feature({ geometry: new Point([1.1, 2]), }); feature.setId(1); const objectStack = [ { featureNS: featureNS, srsName: 'EPSG:4326', }, ]; format.writeFeatureElement(node, feature, objectStack); expect(node).to.xmleql(parse(expected)); }); it('can serialize a Multi Point', function () { const expected = '' + ' ' + ' ' + ' ' + ' ' + ' ' + ' 2,1.1' + ' ' + ' ' + ' ' + ' ' + ' ' + ' '; const feature = new Feature({ geometry: new MultiPoint([[1.1, 2]]), }); feature.setId(1); const objectStack = [ { featureNS: featureNS, srsName: 'EPSG:4326', }, ]; format.writeFeatureElement(node, feature, objectStack); expect(node).to.xmleql(parse(expected)); }); it('can serialize a Multi Line String', function () { const expected = '' + ' ' + ' ' + ' ' + ' ' + ' ' + ' 2,1.1 4.2,3' + ' ' + ' ' + ' ' + ' ' + ' ' + ' '; const feature = new Feature({ geometry: new MultiLineString([ [ [1.1, 2], [3, 4.2], ], ]), }); feature.setId(1); const objectStack = [ { featureNS: featureNS, srsName: 'EPSG:4326', }, ]; format.writeFeatureElement(node, feature, objectStack); expect(node).to.xmleql(parse(expected)); }); it('can serialize a Multi Polygon', function () { const expected = '' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' 2,1.1 4.2,3 6,5.2' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' '; const feature = new Feature({ geometry: new MultiPolygon([ [ [ [1.1, 2], [3, 4.2], [5.2, 6], ], ], ]), }); feature.setId(1); const objectStack = [ { featureNS: featureNS, srsName: 'EPSG:4326', }, ]; format.writeFeatureElement(node, feature, objectStack); expect(node).to.xmleql(parse(expected)); }); }); }); describe('ol.format.GML3', function () { let format, formatWGS84, formatNoSrs; beforeEach(function () { format = new GML({srsName: 'CRS:84'}); formatWGS84 = new GML({ srsName: 'urn:x-ogc:def:crs:EPSG:4326', }); formatNoSrs = new GML(); }); describe('#readGeometry', function () { describe('point', function () { it('can read and write a point geometry', function () { const text = '' + ' 1 2' + ''; const g = readGeometry(format, text); expect(g).to.be.an(Point); expect(g.getCoordinates()).to.eql([1, 2, 0]); const serialized = format.writeGeometryNode(g); expect(serialized.firstElementChild).to.xmleql(parse(text)); }); it('can read a point geometry with scientific notation', function () { let text = '' + ' 1E7 2' + ''; let g = readGeometry(format, text); expect(g).to.be.an(Point); expect(g.getCoordinates()).to.eql([10000000, 2, 0]); text = '' + ' 1e7 2' + ''; g = readGeometry(format, text); expect(g).to.be.an(Point); expect(g.getCoordinates()).to.eql([10000000, 2, 0]); }); it('can read, transform and write a point geometry', function () { const config = { featureProjection: 'EPSG:3857', }; const text = '' + ' 1 2' + ''; const g = readGeometry(format, text, config); expect(g).to.be.an(Point); const coordinates = g.getCoordinates(); expect(coordinates.splice(0, 2)).to.eql( transform([1, 2], 'CRS:84', 'EPSG:3857') ); config.dataProjection = 'CRS:84'; const serialized = format.writeGeometryNode(g, config); const pos = serialized.firstElementChild.firstElementChild.textContent; const coordinate = pos.split(' '); expect(coordinate[0]).to.roughlyEqual(1, 1e-9); expect(coordinate[1]).to.roughlyEqual(2, 1e-9); }); it('can detect SRS, read and transform a point geometry', function () { const config = { featureProjection: 'EPSG:3857', }; const text = '' + ' 1 2' + ''; const g = readGeometry(formatNoSrs, text, config); expect(g).to.be.an(Point); const coordinates = g.getCoordinates(); expect(coordinates.splice(0, 2)).to.eql( transform([1, 2], 'CRS:84', 'EPSG:3857') ); }); it('can read and write a point geometry in EPSG:4326', function () { const text = '' + ' 2 1' + ''; const g = readGeometry(formatWGS84, text); expect(g).to.be.an(Point); expect(g.getCoordinates()).to.eql([1, 2, 0]); const serialized = formatWGS84.writeGeometryNode(g); expect(serialized.firstElementChild).to.xmleql(parse(text)); }); }); describe('linestring', function () { it('can read and write a linestring geometry', function () { const text = '' + ' 1 2 3 4' + ''; const g = readGeometry(format, text); expect(g).to.be.an(LineString); expect(g.getCoordinates()).to.eql([ [1, 2, 0], [3, 4, 0], ]); const serialized = format.writeGeometryNode(g); expect(serialized.firstElementChild).to.xmleql(parse(text)); }); it('can read, transform and write a linestring geometry', function () { const config = { dataProjection: 'CRS:84', featureProjection: 'EPSG:3857', }; const text = '' + ' 1 2 3 4' + ''; const g = readGeometry(format, text, config); expect(g).to.be.an(LineString); const coordinates = g.getCoordinates(); expect(coordinates[0].slice(0, 2)).to.eql( transform([1, 2], 'CRS:84', 'EPSG:3857') ); expect(coordinates[1].slice(0, 2)).to.eql( transform([3, 4], 'CRS:84', 'EPSG:3857') ); const serialized = format.writeGeometryNode(g, config); const poss = serialized.firstElementChild.firstElementChild.textContent; const coordinate = poss.split(' '); expect(coordinate[0]).to.roughlyEqual(1, 1e-9); expect(coordinate[1]).to.roughlyEqual(2, 1e-9); expect(coordinate[2]).to.roughlyEqual(3, 1e-9); expect(coordinate[3]).to.roughlyEqual(4, 1e-9); }); it('can read and write a linestring geometry in EPSG:4326', function () { const text = '' + ' 2 1 4 3' + ''; const g = readGeometry(formatWGS84, text); expect(g).to.be.an(LineString); expect(g.getCoordinates()).to.eql([ [1, 2, 0], [3, 4, 0], ]); const serialized = formatWGS84.writeGeometryNode(g); expect(serialized.firstElementChild).to.xmleql(parse(text)); }); }); describe('axis order', function () { it( 'can read and write a linestring geometry with ' + 'correct axis order', function () { const text = '' + ' -90 -180 90 180' + ''; const g = readGeometry(format, text); expect(g).to.be.an(LineString); expect(g.getCoordinates()).to.eql([ [-180, -90, 0], [180, 90, 0], ]); const serialized = formatWGS84.writeGeometryNode(g); expect(serialized.firstElementChild).to.xmleql(parse(text)); } ); it('can read and write a point geometry with correct axis order', function () { const text = '' + ' -90 -180' + ''; const g = readGeometry(format, text); expect(g).to.be.an(Point); expect(g.getCoordinates()).to.eql([-180, -90, 0]); const serialized = formatWGS84.writeGeometryNode(g); expect(serialized.firstElementChild).to.xmleql(parse(text)); }); it('can read and write a surface geometry with right axis order', function () { const text = '' + ' ' + ' ' + ' ' + ' ' + ' ' + ' 38.9661 -77.0081 38.9931 -77.0421 ' + ' 38.9321 -77.1221 38.9151 -77.0781 38.8861 ' + ' -77.0671 38.8621 -77.0391 38.8381 -77.0401 ' + ' 38.8291 -77.0451 38.8131 -77.0351 38.7881 ' + ' -77.0451 38.8891 -76.9111 38.9661 -77.0081' + ' ' + ' ' + ' ' + ' ' + ' ' + ''; const g = readGeometry(format, text); expect(g.getCoordinates()[0][0][0][0]).to.equal(-77.0081); expect(g.getCoordinates()[0][0][0][1]).to.equal(38.9661); format = new GML({ srsName: 'urn:x-ogc:def:crs:EPSG:4326', surface: false, }); const serialized = format.writeGeometryNode(g); expect(serialized.firstElementChild).to.xmleql(parse(text)); }); }); describe('linestring 3D', function () { it('can read a linestring 3D geometry', function () { const text = '' + ' 1 2 3 4 5 6' + ''; const g = readGeometry(format, text); expect(g).to.be.an(LineString); expect(g.getCoordinates()).to.eql([ [1, 2, 3], [4, 5, 6], ]); }); }); describe('linearring', function () { it('can read and write a linearring geometry', function () { const text = '' + ' 1 2 3 4 5 6 1 2' + ''; const g = readGeometry(format, text); expect(g).to.be.an(LinearRing); expect(g.getCoordinates()).to.eql([ [1, 2, 0], [3, 4, 0], [5, 6, 0], [1, 2, 0], ]); const serialized = format.writeGeometryNode(g); expect(serialized.firstElementChild).to.xmleql(parse(text)); }); }); describe('polygon', function () { it('can read and write a polygon geometry', function () { const text = '' + ' ' + ' ' + ' 1 2 3 2 3 4 1 2' + ' ' + ' ' + ' ' + ' ' + ' 2 3 2 5 4 5 2 3' + ' ' + ' ' + ' ' + ' ' + ' 3 4 3 6 5 6 3 4' + ' ' + ' ' + ''; const g = readGeometry(format, text); expect(g).to.be.an(Polygon); expect(g.getCoordinates()).to.eql([ [ [1, 2, 0], [3, 2, 0], [3, 4, 0], [1, 2, 0], ], [ [2, 3, 0], [2, 5, 0], [4, 5, 0], [2, 3, 0], ], [ [3, 4, 0], [3, 6, 0], [5, 6, 0], [3, 4, 0], ], ]); const serialized = format.writeGeometryNode(g); expect(serialized.firstElementChild).to.xmleql(parse(text)); }); }); describe('surface', function () { it('can read and write a surface geometry', function () { const text = '' + ' ' + ' ' + ' ' + ' ' + ' ' + ' 1 2 3 2 3 4 1 2' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' 2 3 2 5 4 5 2 3' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' 3 4 3 6 5 6 3 4' + ' ' + ' ' + ' ' + ' ' + ' ' + ''; const g = readGeometry(format, text); expect(g).to.be.an(Polygon); expect(g.getCoordinates()).to.eql([ [ [1, 2, 0], [3, 2, 0], [3, 4, 0], [1, 2, 0], ], [ [2, 3, 0], [2, 5, 0], [4, 5, 0], [2, 3, 0], ], [ [3, 4, 0], [3, 6, 0], [5, 6, 0], [3, 4, 0], ], ]); format = new GML({srsName: 'CRS:84', surface: true}); const serialized = format.writeGeometryNode(g); expect(serialized.firstElementChild).to.xmleql(parse(text)); }); }); describe('curve', function () { it('can read and write a curve geometry', function () { const text = '' + ' ' + ' ' + ' 1 2 3 4' + ' ' + ' ' + ''; const g = readGeometry(format, text); expect(g).to.be.an(LineString); expect(g.getCoordinates()).to.eql([ [1, 2, 0], [3, 4, 0], ]); format = new GML({srsName: 'CRS:84', curve: true}); const serialized = format.writeGeometryNode(g); expect(serialized.firstElementChild).to.xmleql(parse(text)); }); }); describe('envelope', function () { it('can read an envelope geometry', function () { const text = '' + ' 1 2' + ' 3 4' + ''; const g = readGeometry(format, text); expect(g).to.eql([1, 2, 3, 4]); }); }); describe('multipoint', function () { it('can read and write a singular multipoint geometry', function () { const text = '' + ' ' + ' ' + ' 1 2' + ' ' + ' ' + ' ' + ' ' + ' 2 3' + ' ' + ' ' + ' ' + ' ' + ' 3 4' + ' ' + ' ' + ''; const g = readGeometry(format, text); expect(g).to.be.an(MultiPoint); expect(g.getCoordinates()).to.eql([ [1, 2, 0], [2, 3, 0], [3, 4, 0], ]); const serialized = format.writeGeometryNode(g); expect(serialized.firstElementChild).to.xmleql(parse(text)); }); it('can read a plural multipoint geometry', function () { const text = '' + ' ' + ' ' + ' 1 2' + ' ' + ' ' + ' 2 3' + ' ' + ' ' + ' 3 4' + ' ' + ' ' + ''; const g = readGeometry(format, text); expect(g).to.be.an(MultiPoint); expect(g.getCoordinates()).to.eql([ [1, 2, 0], [2, 3, 0], [3, 4, 0], ]); }); }); describe('multilinestring', function () { it('can read and write a singular multilinestring geometry', function () { const text = '' + ' ' + ' ' + ' 1 2 2 3' + ' ' + ' ' + ' ' + ' ' + ' 3 4 4 5' + ' ' + ' ' + ''; const g = readGeometry(format, text); expect(g).to.be.an(MultiLineString); expect(g.getCoordinates()).to.eql([ [ [1, 2, 0], [2, 3, 0], ], [ [3, 4, 0], [4, 5, 0], ], ]); format = new GML({srsName: 'CRS:84', multiCurve: false}); const serialized = format.writeGeometryNode(g); expect(serialized.firstElementChild).to.xmleql(parse(text)); }); it('can read a plural multilinestring geometry', function () { const text = '' + ' ' + ' ' + ' 1 2 2 3' + ' ' + ' ' + ' 3 4 4 5' + ' ' + ' ' + ''; const g = readGeometry(format, text); expect(g).to.be.an(MultiLineString); expect(g.getCoordinates()).to.eql([ [ [1, 2, 0], [2, 3, 0], ], [ [3, 4, 0], [4, 5, 0], ], ]); }); }); describe('multipolygon', function () { it('can read and write a singular multipolygon geometry', function () { const text = '' + ' ' + ' ' + ' ' + ' ' + ' ' + ' 1 2 3 2 3 4 1 2' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' 2 3 2 5 4 5 2 3' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' 3 4 3 6 5 6 3 4' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' 1 2 3 2 3 4 1 2' + ' ' + ' ' + ' ' + ' ' + ' ' + ''; const g = readGeometry(format, text); expect(g).to.be.an(MultiPolygon); expect(g.getCoordinates()).to.eql([ [ [ [1, 2, 0], [3, 2, 0], [3, 4, 0], [1, 2, 0], ], [ [2, 3, 0], [2, 5, 0], [4, 5, 0], [2, 3, 0], ], [ [3, 4, 0], [3, 6, 0], [5, 6, 0], [3, 4, 0], ], ], [ [ [1, 2, 0], [3, 2, 0], [3, 4, 0], [1, 2, 0], ], ], ]); format = new GML({srsName: 'CRS:84', multiSurface: false}); const serialized = format.writeGeometryNode(g); expect(serialized.firstElementChild).to.xmleql(parse(text)); }); it('can read a plural multipolygon geometry', function () { const text = '' + ' ' + ' ' + ' ' + ' ' + ' 1 2 3 2 3 4 1 2' + ' ' + ' ' + ' ' + ' ' + ' 2 3 2 5 4 5 2 3' + ' ' + ' ' + ' ' + ' ' + ' 3 4 3 6 5 6 3 4' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' 1 2 3 2 3 4 1 2' + ' ' + ' ' + ' ' + ' ' + ''; const g = readGeometry(format, text); expect(g).to.be.an(MultiPolygon); expect(g.getCoordinates()).to.eql([ [ [ [1, 2, 0], [3, 2, 0], [3, 4, 0], [1, 2, 0], ], [ [2, 3, 0], [2, 5, 0], [4, 5, 0], [2, 3, 0], ], [ [3, 4, 0], [3, 6, 0], [5, 6, 0], [3, 4, 0], ], ], [ [ [1, 2, 0], [3, 2, 0], [3, 4, 0], [1, 2, 0], ], ], ]); }); }); describe('multicurve', function () { it('can read and write a singular multicurve-linestring geometry', function () { const text = '' + ' ' + ' ' + ' 1 2 2 3' + ' ' + ' ' + ' ' + ' ' + ' 3 4 4 5' + ' ' + ' ' + ''; const g = readGeometry(format, text); expect(g).to.be.an(MultiLineString); expect(g.getCoordinates()).to.eql([ [ [1, 2, 0], [2, 3, 0], ], [ [3, 4, 0], [4, 5, 0], ], ]); const serialized = format.writeGeometryNode(g); expect(serialized.firstElementChild).to.xmleql(parse(text)); }); it('can read and write a singular multicurve-curve geometry', function () { const text = '' + ' ' + ' ' + ' ' + ' ' + ' 1 2 2 3' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' 3 4 4 5' + ' ' + ' ' + ' ' + ' ' + ''; const g = readGeometry(format, text); expect(g).to.be.an(MultiLineString); expect(g.getCoordinates()).to.eql([ [ [1, 2, 0], [2, 3, 0], ], [ [3, 4, 0], [4, 5, 0], ], ]); format = new GML({srsName: 'CRS:84', curve: true}); const serialized = format.writeGeometryNode(g); expect(serialized.firstElementChild).to.xmleql(parse(text)); }); }); describe('multisurface', function () { it('can read and write a singular multisurface geometry', function () { const text = '' + ' ' + ' ' + ' ' + ' ' + ' ' + ' 1 2 3 2 3 4 1 2' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' 2 3 2 5 4 5 2 3' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' 3 4 3 6 5 6 3 4' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' 1 2 3 2 3 4 1 2' + ' ' + ' ' + ' ' + ' ' + ' ' + ''; const g = readGeometry(format, text); expect(g).to.be.an(MultiPolygon); expect(g.getCoordinates()).to.eql([ [ [ [1, 2, 0], [3, 2, 0], [3, 4, 0], [1, 2, 0], ], [ [2, 3, 0], [2, 5, 0], [4, 5, 0], [2, 3, 0], ], [ [3, 4, 0], [3, 6, 0], [5, 6, 0], [3, 4, 0], ], ], [ [ [1, 2, 0], [3, 2, 0], [3, 4, 0], [1, 2, 0], ], ], ]); const serialized = format.writeGeometryNode(g); expect(serialized.firstElementChild).to.xmleql(parse(text)); }); it('can read a plural multisurface geometry', function () { const text = '' + ' ' + ' ' + ' ' + ' ' + ' 1 2 3 2 3 4 1 2' + ' ' + ' ' + ' ' + ' ' + ' 2 3 2 5 4 5 2 3' + ' ' + ' ' + ' ' + ' ' + ' 3 4 3 6 5 6 3 4' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' 1 2 3 2 3 4 1 2' + ' ' + ' ' + ' ' + ' ' + ''; const g = readGeometry(format, text); expect(g).to.be.an(MultiPolygon); expect(g.getCoordinates()).to.eql([ [ [ [1, 2, 0], [3, 2, 0], [3, 4, 0], [1, 2, 0], ], [ [2, 3, 0], [2, 5, 0], [4, 5, 0], [2, 3, 0], ], [ [3, 4, 0], [3, 6, 0], [5, 6, 0], [3, 4, 0], ], ], [ [ [1, 2, 0], [3, 2, 0], [3, 4, 0], [1, 2, 0], ], ], ]); }); it('can read and write a multisurface-surface geometry', function () { const text = '' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' 1 2 3 2 3 4 1 2' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' 2 3 2 5 4 5 2 3' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' 3 4 3 6 5 6 3 4' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' 1 2 3 2 3 4 1 2' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ''; const g = readGeometry(format, text); expect(g).to.be.an(MultiPolygon); expect(g.getCoordinates()).to.eql([ [ [ [1, 2, 0], [3, 2, 0], [3, 4, 0], [1, 2, 0], ], [ [2, 3, 0], [2, 5, 0], [4, 5, 0], [2, 3, 0], ], [ [3, 4, 0], [3, 6, 0], [5, 6, 0], [3, 4, 0], ], ], [ [ [1, 2, 0], [3, 2, 0], [3, 4, 0], [1, 2, 0], ], ], ]); format = new GML({srsName: 'CRS:84', surface: true}); const serialized = format.writeGeometryNode(g); expect(serialized.firstElementChild).to.xmleql(parse(text)); }); }); }); describe('when parsing empty attribute', function () { it('generates undefined value', function () { const text = '' + ' ' + ' Aflu' + ' ' + ' ' + ' 34.12 2.09' + ' ' + ' ' + ' 84683' + ' Algeria' + ' place' + ' Aflu' + ' ' + ' ' + ''; const config = { 'featureNS': 'http://www.openplans.org/topp', 'featureType': 'gnis_pop', }; const features = new GML(config).readFeatures(text); const feature = features[0]; expect(feature.get('empty')).to.be(undefined); }); }); describe('when parsing CDATA attribute', function () { let features; before(function (done) { try { const text = '' + ' ' + ' Aflu' + ' ' + ' ' + ' 34.12 2.09' + ' ' + ' ' + ' 84683' + ' Algeria' + ' place' + ' Aflu' + ' b]]>' + ' ' + ''; const config = { 'featureNS': 'http://www.openplans.org/topp', 'featureType': 'gnis_pop', }; features = new GML(config).readFeatures(text); } catch (e) { done(e); } done(); }); it('creates 1 feature', function () { expect(features).to.have.length(1); }); it('converts XML attribute to text', function () { expect(features[0].get('cdata')).to.be('b'); }); }); describe('when parsing TOPP states WFS with autoconfigure', function () { let features, gmlFormat; before(function (done) { afterLoadText('spec/ol/format/gml/topp-states-wfs.xml', function (xml) { try { gmlFormat = new GML(); features = gmlFormat.readFeatures(xml); } catch (e) { done(e); } done(); }); }); it('creates 3 features', function () { expect(features).to.have.length(3); }); it('creates the right id for the feature', function () { expect(features[0].getId()).to.equal('states.1'); }); it('can reuse the parser for a different featureNS', function () { const text = '' + ' ' + ' Aflu' + ' ' + ' ' + ' 34.12 2.09' + ' ' + ' ' + ' 84683' + ' ' + ''; features = gmlFormat.readFeatures(text); expect(features).to.have.length(1); expect(features[0].get('population')).to.equal('84683'); }); it('can read an empty collection', function () { const text = '' + ''; features = gmlFormat.readFeatures(text); expect(features).to.have.length(0); }); }); describe('when parsing TOPP states GML', function () { let features, text, gmlFormat; before(function (done) { afterLoadText('spec/ol/format/gml/topp-states-gml.xml', function (xml) { try { const schemaLoc = 'http://www.openplans.org/topp ' + 'http://demo.opengeo.org/geoserver/wfs?service=WFS&version=' + '1.1.0&request=DescribeFeatureType&typeName=topp:states ' + 'http://www.opengis.net/gml ' + 'http://schemas.opengis.net/gml/3.2.1/gml.xsd'; const config = { 'featureNS': 'http://www.openplans.org/topp', 'featureType': 'states', 'multiSurface': true, 'srsName': 'urn:x-ogc:def:crs:EPSG:4326', 'schemaLocation': schemaLoc, }; text = xml; gmlFormat = new GML(config); features = gmlFormat.readFeatures(xml); } catch (e) { done(e); } done(); }); }); it('creates 10 features', function () { expect(features).to.have.length(10); }); it('creates the right id for the feature', function () { expect(features[0].getId()).to.equal('states.1'); }); it('writes back features as GML', function () { const serialized = gmlFormat.writeFeaturesNode(features); expect(serialized).to.xmleql(parse(text), {ignoreElementOrder: true}); }); }); describe('when parsing TOPP states GML with multiple featureMember tags', function () { let features, gmlFormat; before(function (done) { afterLoadText( 'spec/ol/format/gml/topp-states-gml-featureMember.xml', function (xml) { try { const schemaLoc = 'http://www.openplans.org/topp ' + 'http://demo.opengeo.org/geoserver/wfs?service=WFS&version=' + '1.1.0&request=DescribeFeatureType&typeName=topp:states ' + 'http://www.opengis.net/gml ' + 'http://schemas.opengis.net/gml/3.2.1/gml.xsd'; const config = { 'featureNS': 'http://www.openplans.org/topp', 'featureType': 'states', 'multiSurface': true, 'srsName': 'urn:x-ogc:def:crs:EPSG:4326', 'schemaLocation': schemaLoc, }; gmlFormat = new GML(config); features = gmlFormat.readFeatures(xml); } catch (e) { done(e); } done(); } ); }); it('creates 3 features', function () { expect(features).to.have.length(3); }); }); describe('when parsing TOPP states GML from WFS', function () { let features, feature; before(function (done) { afterLoadText('spec/ol/format/gml/topp-states-wfs.xml', function (xml) { try { const config = { 'featureNS': 'http://www.openplans.org/topp', 'featureType': 'states', }; features = new GML(config).readFeatures(xml); } catch (e) { done(e); } done(); }); }); it('creates 3 features', function () { expect(features).to.have.length(3); }); it('creates a polygon for Illinois', function () { feature = features[0]; expect(feature.getId()).to.equal('states.1'); expect(feature.get('STATE_NAME')).to.equal('Illinois'); expect(feature.getGeometry()).to.be.an(MultiPolygon); }); }); describe('when parsing more than one geometry', function () { let features; before(function (done) { afterLoadText('spec/ol/format/gml/more-geoms.xml', function (xml) { try { const config = { 'featureNS': 'http://opengeo.org/#medford', 'featureType': 'zoning', }; features = new GML(config).readFeatures(xml); } catch (e) { done(e); } done(); }); }); it('creates 2 geometries', function () { const feature = features[0]; expect(feature.get('center')).to.be.a(Point); expect(feature.get('the_geom')).to.be.a(MultiPolygon); }); }); describe('when parsing an attribute name equal to featureType', function () { let features; before(function (done) { afterLoadText('spec/ol/format/gml/repeated-name.xml', function (xml) { try { const config = { 'featureNS': 'http://opengeo.org/#medford', 'featureType': 'zoning', }; features = new GML(config).readFeatures(xml); } catch (e) { done(e); } done(); }); }); it('creates the correct attribute value', function () { const feature = features[0]; expect(feature.get('zoning')).to.equal('I-L'); }); }); describe('when parsing only a boundedBy element and no geometry', function () { let features; before(function (done) { afterLoadText('spec/ol/format/gml/only-boundedby.xml', function (xml) { try { features = new GML().readFeatures(xml); } catch (e) { done(e); } done(); }); }); it('creates a feature without a geometry', function () { const feature = features[0]; expect(feature.getGeometry()).to.be(undefined); }); }); describe('when parsing from OGR', function () { let features; before(function (done) { afterLoadText('spec/ol/format/gml/ogr.xml', function (xml) { try { features = new GML().readFeatures(xml); } catch (e) { done(e); } done(); }); }); it('reads all features', function () { expect(features.length).to.be(1); }); }); describe('when parsing multiple feature types', function () { let features; before(function (done) { afterLoadText( 'spec/ol/format/gml/multiple-typenames.xml', function (xml) { try { features = new GML({ featureNS: 'http://localhost:8080/official', featureType: ['planet_osm_polygon', 'planet_osm_line'], }).readFeatures(xml); } catch (e) { done(e); } done(); } ); }); it('reads all features', function () { expect(features.length).to.be(12); }); }); describe('when parsing multiple feature types', function () { let features; before(function (done) { afterLoadText( 'spec/ol/format/gml/multiple-typenames.xml', function (xml) { try { features = new GML().readFeatures(xml); } catch (e) { done(e); } done(); } ); }); it('reads all features with autoconfigure', function () { expect(features.length).to.be(12); }); }); describe('when parsing multiple feature types / namespaces', function () { let features; before(function (done) { const url = 'spec/ol/format/gml/multiple-typenames-ns.xml'; afterLoadText(url, function (xml) { try { features = new GML({ featureNS: { 'topp': 'http://www.openplans.org/topp', 'sf': 'http://www.openplans.org/spearfish', }, featureType: ['topp:states', 'sf:roads'], }).readFeatures(xml); } catch (e) { done(e); } done(); }); }); it('reads all features', function () { expect(features.length).to.be(2); }); }); describe('when parsing multiple feature types / namespaces', function () { let features; before(function (done) { const url = 'spec/ol/format/gml/multiple-typenames-ns.xml'; afterLoadText(url, function (xml) { try { features = new GML().readFeatures(xml); } catch (e) { done(e); } done(); }); }); it('reads all features with autoconfigure', function () { expect(features.length).to.be(2); }); }); describe('when parsing srsDimension from WFS (Geoserver)', function () { let features, feature; before(function (done) { afterLoadText( 'spec/ol/format/gml/geoserver3DFeatures.xml', function (xml) { try { const config = { 'featureNS': 'http://www.opengeospatial.net/cite', 'featureType': 'geoserver_layer', }; features = new GML(config).readFeatures(xml); } catch (e) { done(e); } done(); } ); }); it('creates 3 features', function () { expect(features).to.have.length(3); }); it('creates a LineString', function () { feature = features[0]; expect(feature.getId()).to.equal('geoserver_layer.1'); expect(feature.getGeometry()).to.be.an(LineString); }); it('creates a Polygon', function () { feature = features[1]; expect(feature.getId()).to.equal('geoserver_layer.2'); expect(feature.getGeometry()).to.be.an(Polygon); }); it('creates a Point', function () { feature = features[2]; expect(feature.getId()).to.equal('geoserver_layer.3'); expect(feature.getGeometry()).to.be.an(Point); }); it('creates 3D Features with the expected geometries', function () { const expectedGeometry1 = [ 4.46386854, 51.91122415, 46.04679351, 4.46382399, 51.91120839, 46.04679382, ]; const expectedGeometry2 = [ 4.46385491, 51.91119276, 46.06074531, 4.4638264, 51.91118582, 46.06074609, 4.46380612, 51.91121772, 46.06074168, 4.46383463, 51.91122465, 46.06074089, 4.46385491, 51.91119276, 46.06074531, ]; const expectedGeometry3 = [4.46383715, 51.91125849, 46.04679348]; feature = features[0]; expect(feature.getGeometry().getFlatCoordinates()).to.eql( expectedGeometry1 ); feature = features[1]; expect(feature.getGeometry().getFlatCoordinates()).to.eql( expectedGeometry2 ); feature = features[2]; expect(feature.getGeometry().getFlatCoordinates()).to.eql( expectedGeometry3 ); }); }); describe('when parsing complex', function () { let features, gmlFormat; before(function (done) { afterLoadText('spec/ol/format/gml/gml-complex.xml', function (xml) { try { gmlFormat = new GML(); features = gmlFormat.readFeatures(xml); } catch (e) { done(e); } done(); }); }); it('creates 3 features', function () { expect(features).to.have.length(3); }); it('creates feature with two names', function () { expect(features[0].values_['name']).to.have.length(2); }); it('parses mutliple simple elements to strings', function () { expect(features[0].values_['name'][0]).to.be.a('string'); }); it('creates nested property', function () { expect( features[0].values_['observationMethod']['CGI_TermValue']['value'][ '_content_' ] ).to.eql('urn:ogc:def:nil:OGC:missing'); }); it('creates nested attribute', function () { expect( features[0].values_['observationMethod']['CGI_TermValue']['value'][ 'codeSpace' ] ).to.eql('urn:ietf:rfc:2141'); }); }); }); describe('ol.format.GML32', function () { let format, formatWGS84, formatNoSrs; beforeEach(function () { format = new GML32({srsName: 'CRS:84'}); formatWGS84 = new GML32({ srsName: 'urn:x-ogc:def:crs:EPSG:4326', }); formatNoSrs = new GML32(); }); describe('#readGeometry', function () { describe('point', function () { it('can read and write a point geometry', function () { const text = '' + ' 1 2' + ''; const g = readGeometry(format, text); expect(g).to.be.an(Point); expect(g.getCoordinates()).to.eql([1, 2, 0]); const serialized = format.writeGeometryNode(g); expect(serialized.firstElementChild).to.xmleql(parse(text)); }); it('can read a point geometry with scientific notation', function () { let text = '' + ' 1E7 2' + ''; let g = readGeometry(format, text); expect(g).to.be.an(Point); expect(g.getCoordinates()).to.eql([10000000, 2, 0]); text = '' + ' 1e7 2' + ''; g = readGeometry(format, text); expect(g).to.be.an(Point); expect(g.getCoordinates()).to.eql([10000000, 2, 0]); }); it('can read, transform and write a point geometry', function () { const config = { featureProjection: 'EPSG:3857', }; const text = '' + ' 1 2' + ''; const g = readGeometry(format, text, config); expect(g).to.be.an(Point); const coordinates = g.getCoordinates(); expect(coordinates.splice(0, 2)).to.eql( transform([1, 2], 'CRS:84', 'EPSG:3857') ); config.dataProjection = 'CRS:84'; const serialized = format.writeGeometryNode(g, config); const pos = serialized.firstElementChild.firstElementChild.textContent; const coordinate = pos.split(' '); expect(coordinate[0]).to.roughlyEqual(1, 1e-9); expect(coordinate[1]).to.roughlyEqual(2, 1e-9); }); it('can detect SRS, read and transform a point geometry', function () { const config = { featureProjection: 'EPSG:3857', }; const text = '' + ' 1 2' + ''; const g = readGeometry(formatNoSrs, text, config); expect(g).to.be.an(Point); const coordinates = g.getCoordinates(); expect(coordinates.splice(0, 2)).to.eql( transform([1, 2], 'CRS:84', 'EPSG:3857') ); }); it('can read and write a point geometry in EPSG:4326', function () { const text = '' + ' 2 1' + ''; const g = readGeometry(formatWGS84, text); expect(g).to.be.an(Point); expect(g.getCoordinates()).to.eql([1, 2, 0]); const serialized = formatWGS84.writeGeometryNode(g); expect(serialized.firstElementChild).to.xmleql(parse(text)); }); }); describe('linestring', function () { it('can read and write a linestring geometry', function () { const text = '' + ' 1 2 3 4' + ''; const g = readGeometry(format, text); expect(g).to.be.an(LineString); expect(g.getCoordinates()).to.eql([ [1, 2, 0], [3, 4, 0], ]); const serialized = format.writeGeometryNode(g); expect(serialized.firstElementChild).to.xmleql(parse(text)); }); it('can read, transform and write a linestring geometry', function () { const config = { dataProjection: 'CRS:84', featureProjection: 'EPSG:3857', }; const text = '' + ' 1 2 3 4' + ''; const g = readGeometry(format, text, config); expect(g).to.be.an(LineString); const coordinates = g.getCoordinates(); expect(coordinates[0].slice(0, 2)).to.eql( transform([1, 2], 'CRS:84', 'EPSG:3857') ); expect(coordinates[1].slice(0, 2)).to.eql( transform([3, 4], 'CRS:84', 'EPSG:3857') ); const serialized = format.writeGeometryNode(g, config); const poss = serialized.firstElementChild.firstElementChild.textContent; const coordinate = poss.split(' '); expect(coordinate[0]).to.roughlyEqual(1, 1e-9); expect(coordinate[1]).to.roughlyEqual(2, 1e-9); expect(coordinate[2]).to.roughlyEqual(3, 1e-9); expect(coordinate[3]).to.roughlyEqual(4, 1e-9); }); it('can read and write a linestring geometry in EPSG:4326', function () { const text = '' + ' 2 1 4 3' + ''; const g = readGeometry(formatWGS84, text); expect(g).to.be.an(LineString); expect(g.getCoordinates()).to.eql([ [1, 2, 0], [3, 4, 0], ]); const serialized = formatWGS84.writeGeometryNode(g); expect(serialized.firstElementChild).to.xmleql(parse(text)); }); }); describe('axis order', function () { it( 'can read and write a linestring geometry with ' + 'correct axis order', function () { const text = '' + ' -90 -180 90 180' + ''; const g = readGeometry(format, text); expect(g).to.be.an(LineString); expect(g.getCoordinates()).to.eql([ [-180, -90, 0], [180, 90, 0], ]); const serialized = formatWGS84.writeGeometryNode(g); expect(serialized.firstElementChild).to.xmleql(parse(text)); } ); it('can read and write a point geometry with correct axis order', function () { const text = '' + ' -90 -180' + ''; const g = readGeometry(format, text); expect(g).to.be.an(Point); expect(g.getCoordinates()).to.eql([-180, -90, 0]); const serialized = formatWGS84.writeGeometryNode(g); expect(serialized.firstElementChild).to.xmleql(parse(text)); }); it('can read and write a surface geometry with right axis order', function () { const text = '' + ' ' + ' ' + ' ' + ' ' + ' ' + ' 38.9661 -77.0081 38.9931 -77.0421 ' + ' 38.9321 -77.1221 38.9151 -77.0781 38.8861 ' + ' -77.0671 38.8621 -77.0391 38.8381 -77.0401 ' + ' 38.8291 -77.0451 38.8131 -77.0351 38.7881 ' + ' -77.0451 38.8891 -76.9111 38.9661 -77.0081' + ' ' + ' ' + ' ' + ' ' + ' ' + ''; const g = readGeometry(format, text); expect(g.getCoordinates()[0][0][0][0]).to.equal(-77.0081); expect(g.getCoordinates()[0][0][0][1]).to.equal(38.9661); format = new GML32({ srsName: 'urn:x-ogc:def:crs:EPSG:4326', surface: false, }); const serialized = format.writeGeometryNode(g); expect(serialized.firstElementChild).to.xmleql(parse(text)); }); }); describe('linestring 3D', function () { it('can read a linestring 3D geometry', function () { const text = '' + ' 1 2 3 4 5 6' + ''; const g = readGeometry(format, text); expect(g).to.be.an(LineString); expect(g.getCoordinates()).to.eql([ [1, 2, 3], [4, 5, 6], ]); }); }); describe('linearring', function () { it('can read and write a linearring geometry', function () { const text = '' + ' 1 2 3 4 5 6 1 2' + ''; const g = readGeometry(format, text); expect(g).to.be.an(LinearRing); expect(g.getCoordinates()).to.eql([ [1, 2, 0], [3, 4, 0], [5, 6, 0], [1, 2, 0], ]); const serialized = format.writeGeometryNode(g); expect(serialized.firstElementChild).to.xmleql(parse(text)); }); }); describe('polygon', function () { it('can read and write a polygon geometry', function () { const text = '' + ' ' + ' ' + ' 1 2 3 2 3 4 1 2' + ' ' + ' ' + ' ' + ' ' + ' 2 3 2 5 4 5 2 3' + ' ' + ' ' + ' ' + ' ' + ' 3 4 3 6 5 6 3 4' + ' ' + ' ' + ''; const g = readGeometry(format, text); expect(g).to.be.an(Polygon); expect(g.getCoordinates()).to.eql([ [ [1, 2, 0], [3, 2, 0], [3, 4, 0], [1, 2, 0], ], [ [2, 3, 0], [2, 5, 0], [4, 5, 0], [2, 3, 0], ], [ [3, 4, 0], [3, 6, 0], [5, 6, 0], [3, 4, 0], ], ]); const serialized = format.writeGeometryNode(g); expect(serialized.firstElementChild).to.xmleql(parse(text)); }); }); describe('surface', function () { it('can read and write a surface geometry', function () { const text = '' + ' ' + ' ' + ' ' + ' ' + ' ' + ' 1 2 3 2 3 4 1 2' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' 2 3 2 5 4 5 2 3' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' 3 4 3 6 5 6 3 4' + ' ' + ' ' + ' ' + ' ' + ' ' + ''; const g = readGeometry(format, text); expect(g).to.be.an(Polygon); expect(g.getCoordinates()).to.eql([ [ [1, 2, 0], [3, 2, 0], [3, 4, 0], [1, 2, 0], ], [ [2, 3, 0], [2, 5, 0], [4, 5, 0], [2, 3, 0], ], [ [3, 4, 0], [3, 6, 0], [5, 6, 0], [3, 4, 0], ], ]); format = new GML32({srsName: 'CRS:84', surface: true}); const serialized = format.writeGeometryNode(g); expect(serialized.firstElementChild).to.xmleql(parse(text)); }); }); describe('curve', function () { it('can read and write a curve geometry', function () { const text = '' + ' ' + ' ' + ' 1 2 3 4' + ' ' + ' ' + ''; const g = readGeometry(format, text); expect(g).to.be.an(LineString); expect(g.getCoordinates()).to.eql([ [1, 2, 0], [3, 4, 0], ]); format = new GML32({srsName: 'CRS:84', curve: true}); const serialized = format.writeGeometryNode(g); expect(serialized.firstElementChild).to.xmleql(parse(text)); }); }); describe('envelope', function () { it('can read an envelope geometry', function () { const text = '' + ' 1 2' + ' 3 4' + ''; const g = readGeometry(format, text); expect(g).to.eql([1, 2, 3, 4]); }); }); describe('multipoint', function () { it('can read and write a singular multipoint geometry', function () { const text = '' + ' ' + ' ' + ' 1 2' + ' ' + ' ' + ' ' + ' ' + ' 2 3' + ' ' + ' ' + ' ' + ' ' + ' 3 4' + ' ' + ' ' + ''; const g = readGeometry(format, text); expect(g).to.be.an(MultiPoint); expect(g.getCoordinates()).to.eql([ [1, 2, 0], [2, 3, 0], [3, 4, 0], ]); const serialized = format.writeGeometryNode(g); expect(serialized.firstElementChild).to.xmleql(parse(text)); }); it('can read a plural multipoint geometry', function () { const text = '' + ' ' + ' ' + ' 1 2' + ' ' + ' ' + ' 2 3' + ' ' + ' ' + ' 3 4' + ' ' + ' ' + ''; const g = readGeometry(format, text); expect(g).to.be.an(MultiPoint); expect(g.getCoordinates()).to.eql([ [1, 2, 0], [2, 3, 0], [3, 4, 0], ]); }); }); describe('multilinestring', function () { it('can read and write a singular multilinestring geometry', function () { const text = '' + ' ' + ' ' + ' 1 2 2 3' + ' ' + ' ' + ' ' + ' ' + ' 3 4 4 5' + ' ' + ' ' + ''; const g = readGeometry(format, text); expect(g).to.be.an(MultiLineString); expect(g.getCoordinates()).to.eql([ [ [1, 2, 0], [2, 3, 0], ], [ [3, 4, 0], [4, 5, 0], ], ]); format = new GML32({srsName: 'CRS:84', multiCurve: false}); const serialized = format.writeGeometryNode(g); expect(serialized.firstElementChild).to.xmleql(parse(text)); }); it('can read a plural multilinestring geometry', function () { const text = '' + ' ' + ' ' + ' 1 2 2 3' + ' ' + ' ' + ' 3 4 4 5' + ' ' + ' ' + ''; const g = readGeometry(format, text); expect(g).to.be.an(MultiLineString); expect(g.getCoordinates()).to.eql([ [ [1, 2, 0], [2, 3, 0], ], [ [3, 4, 0], [4, 5, 0], ], ]); }); }); describe('multipolygon', function () { it('can read and write a singular multipolygon geometry', function () { const text = '' + ' ' + ' ' + ' ' + ' ' + ' ' + ' 1 2 3 2 3 4 1 2' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' 2 3 2 5 4 5 2 3' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' 3 4 3 6 5 6 3 4' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' 1 2 3 2 3 4 1 2' + ' ' + ' ' + ' ' + ' ' + ' ' + ''; const g = readGeometry(format, text); expect(g).to.be.an(MultiPolygon); expect(g.getCoordinates()).to.eql([ [ [ [1, 2, 0], [3, 2, 0], [3, 4, 0], [1, 2, 0], ], [ [2, 3, 0], [2, 5, 0], [4, 5, 0], [2, 3, 0], ], [ [3, 4, 0], [3, 6, 0], [5, 6, 0], [3, 4, 0], ], ], [ [ [1, 2, 0], [3, 2, 0], [3, 4, 0], [1, 2, 0], ], ], ]); format = new GML32({srsName: 'CRS:84', multiSurface: false}); const serialized = format.writeGeometryNode(g); expect(serialized.firstElementChild).to.xmleql(parse(text)); }); it('can read a plural multipolygon geometry', function () { const text = '' + ' ' + ' ' + ' ' + ' ' + ' 1 2 3 2 3 4 1 2' + ' ' + ' ' + ' ' + ' ' + ' 2 3 2 5 4 5 2 3' + ' ' + ' ' + ' ' + ' ' + ' 3 4 3 6 5 6 3 4' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' 1 2 3 2 3 4 1 2' + ' ' + ' ' + ' ' + ' ' + ''; const g = readGeometry(format, text); expect(g).to.be.an(MultiPolygon); expect(g.getCoordinates()).to.eql([ [ [ [1, 2, 0], [3, 2, 0], [3, 4, 0], [1, 2, 0], ], [ [2, 3, 0], [2, 5, 0], [4, 5, 0], [2, 3, 0], ], [ [3, 4, 0], [3, 6, 0], [5, 6, 0], [3, 4, 0], ], ], [ [ [1, 2, 0], [3, 2, 0], [3, 4, 0], [1, 2, 0], ], ], ]); }); }); describe('multicurve', function () { it('can read and write a singular multicurve-linestring geometry', function () { const text = '' + ' ' + ' ' + ' 1 2 2 3' + ' ' + ' ' + ' ' + ' ' + ' 3 4 4 5' + ' ' + ' ' + ''; const g = readGeometry(format, text); expect(g).to.be.an(MultiLineString); expect(g.getCoordinates()).to.eql([ [ [1, 2, 0], [2, 3, 0], ], [ [3, 4, 0], [4, 5, 0], ], ]); const serialized = format.writeGeometryNode(g); expect(serialized.firstElementChild).to.xmleql(parse(text)); }); it('can read and write a singular multicurve-curve geometry', function () { const text = '' + ' ' + ' ' + ' ' + ' ' + ' 1 2 2 3' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' 3 4 4 5' + ' ' + ' ' + ' ' + ' ' + ''; const g = readGeometry(format, text); expect(g).to.be.an(MultiLineString); expect(g.getCoordinates()).to.eql([ [ [1, 2, 0], [2, 3, 0], ], [ [3, 4, 0], [4, 5, 0], ], ]); format = new GML32({srsName: 'CRS:84', curve: true}); const serialized = format.writeGeometryNode(g); expect(serialized.firstElementChild).to.xmleql(parse(text)); }); }); describe('multisurface', function () { it('can read and write a singular multisurface geometry', function () { const text = '' + ' ' + ' ' + ' ' + ' ' + ' ' + ' 1 2 3 2 3 4 1 2' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' 2 3 2 5 4 5 2 3' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' 3 4 3 6 5 6 3 4' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' 1 2 3 2 3 4 1 2' + ' ' + ' ' + ' ' + ' ' + ' ' + ''; const g = readGeometry(format, text); expect(g).to.be.an(MultiPolygon); expect(g.getCoordinates()).to.eql([ [ [ [1, 2, 0], [3, 2, 0], [3, 4, 0], [1, 2, 0], ], [ [2, 3, 0], [2, 5, 0], [4, 5, 0], [2, 3, 0], ], [ [3, 4, 0], [3, 6, 0], [5, 6, 0], [3, 4, 0], ], ], [ [ [1, 2, 0], [3, 2, 0], [3, 4, 0], [1, 2, 0], ], ], ]); const serialized = format.writeGeometryNode(g); expect(serialized.firstElementChild).to.xmleql(parse(text)); }); it('can read a plural multisurface geometry', function () { const text = '' + ' ' + ' ' + ' ' + ' ' + ' 1 2 3 2 3 4 1 2' + ' ' + ' ' + ' ' + ' ' + ' 2 3 2 5 4 5 2 3' + ' ' + ' ' + ' ' + ' ' + ' 3 4 3 6 5 6 3 4' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' 1 2 3 2 3 4 1 2' + ' ' + ' ' + ' ' + ' ' + ''; const g = readGeometry(format, text); expect(g).to.be.an(MultiPolygon); expect(g.getCoordinates()).to.eql([ [ [ [1, 2, 0], [3, 2, 0], [3, 4, 0], [1, 2, 0], ], [ [2, 3, 0], [2, 5, 0], [4, 5, 0], [2, 3, 0], ], [ [3, 4, 0], [3, 6, 0], [5, 6, 0], [3, 4, 0], ], ], [ [ [1, 2, 0], [3, 2, 0], [3, 4, 0], [1, 2, 0], ], ], ]); }); it('can read and write a multisurface-surface geometry', function () { const text = '' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' 1 2 3 2 3 4 1 2' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' 2 3 2 5 4 5 2 3' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' 3 4 3 6 5 6 3 4' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' 1 2 3 2 3 4 1 2' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ' ' + ''; const g = readGeometry(format, text); expect(g).to.be.an(MultiPolygon); expect(g.getCoordinates()).to.eql([ [ [ [1, 2, 0], [3, 2, 0], [3, 4, 0], [1, 2, 0], ], [ [2, 3, 0], [2, 5, 0], [4, 5, 0], [2, 3, 0], ], [ [3, 4, 0], [3, 6, 0], [5, 6, 0], [3, 4, 0], ], ], [ [ [1, 2, 0], [3, 2, 0], [3, 4, 0], [1, 2, 0], ], ], ]); format = new GML32({srsName: 'CRS:84', surface: true}); const serialized = format.writeGeometryNode(g); expect(serialized.firstElementChild).to.xmleql(parse(text)); }); }); }); describe('when parsing empty attribute', function () { it('generates undefined value', function () { const text = '' + ' ' + ' Aflu' + ' ' + ' ' + ' 34.12 2.09' + ' ' + ' ' + ' 84683' + ' Algeria' + ' place' + ' Aflu' + ' ' + ' ' + ''; const config = { 'featureNS': 'http://www.openplans.org/topp', 'featureType': 'gnis_pop', }; const features = new GML32(config).readFeatures(text); const feature = features[0]; expect(feature.get('empty')).to.be(undefined); }); }); describe('when parsing CDATA attribute', function () { let features; before(function (done) { try { const text = '' + ' ' + ' Aflu' + ' ' + ' ' + ' 34.12 2.09' + ' ' + ' ' + ' 84683' + ' Algeria' + ' place' + ' Aflu' + ' b]]>' + ' ' + ''; const config = { 'featureNS': 'http://www.openplans.org/topp', 'featureType': 'gnis_pop', }; features = new GML32(config).readFeatures(text); } catch (e) { done(e); } done(); }); it('creates 1 feature', function () { expect(features).to.have.length(1); }); it('converts XML attribute to text', function () { expect(features[0].get('cdata')).to.be('b'); }); }); describe('when parsing multiple complex attributes', function () { let features; let gmlFormat; before(function (done) { afterLoadText('spec/ol/format/gml/gml32-complex.xml', function (xml) { try { gmlFormat = new GML32(); features = gmlFormat.readFeatures(xml); } catch (e) { done(e); } done(); }); }); it('creates 2 features', function () { expect(features).to.have.length(2); }); it('creates feature with three attributeA properties and two attributeB properties', function () { expect(features[0].values_['attributeA']).to.have.length(3); expect(features[0].values_['attributeB']).to.have.length(2); }); it('parses mutliple complex elements to an array of objects', function () { expect(features[0].values_['attributeA'][0]).to.be.a('object'); }); it('correctly structures multiple elements with attributes', function () { expect(features[0].values_['attributeA'][0]['xlink:href']).to.be( 'http://www.example.com/extern/1' ); expect(features[0].values_['attributeA'][0]._content_).to.be(undefined); expect(features[0].values_['attributeA'][1]['xlink:href']).to.be( 'http://www.example.com/extern/2' ); expect(features[0].values_['attributeA'][2]._content_).to.be(undefined); }); it('correctly structures multiple elements with complex content', function () { expect(features[0].values_['attributeB'][0].Attribute.value).to.be('foo'); expect(features[0].values_['attributeB'][1].Attribute.value).to.be('bar'); }); }); });