Use blocked scoped variables

In addition to using const and let, this also upgrades our linter config and removes lint (mostly whitespace).
This commit is contained in:
Tim Schaub
2018-01-11 23:32:36 -07:00
parent 0bf2b04dee
commit ad62739a6e
684 changed files with 18120 additions and 18184 deletions
+50 -50
View File
@@ -3,7 +3,7 @@
*/
import {squaredSegmentDistance, toRadians, toDegrees} from '../../math.js';
import {get as getProjection, getTransform} from '../../proj.js';
var _ol_geom_flat_geodesic_ = {};
const _ol_geom_flat_geodesic_ = {};
/**
@@ -19,26 +19,26 @@ _ol_geom_flat_geodesic_.line_ = function(interpolate, transform, squaredToleranc
// FIXME optimize stack operations
/** @type {Array.<number>} */
var flatCoordinates = [];
const flatCoordinates = [];
var geoA = interpolate(0);
var geoB = interpolate(1);
let geoA = interpolate(0);
let geoB = interpolate(1);
var a = transform(geoA);
var b = transform(geoB);
let a = transform(geoA);
let b = transform(geoB);
/** @type {Array.<ol.Coordinate>} */
var geoStack = [geoB, geoA];
const geoStack = [geoB, geoA];
/** @type {Array.<ol.Coordinate>} */
var stack = [b, a];
const stack = [b, a];
/** @type {Array.<number>} */
var fractionStack = [1, 0];
const fractionStack = [1, 0];
/** @type {Object.<string, boolean>} */
var fractions = {};
const fractions = {};
var maxIterations = 1e5;
var geoM, m, fracA, fracB, fracM, key;
let maxIterations = 1e5;
let geoM, m, fracA, fracB, fracM, key;
while (--maxIterations > 0 && fractionStack.length > 0) {
// Pop the a coordinate off the stack
@@ -60,7 +60,7 @@ _ol_geom_flat_geodesic_.line_ = function(interpolate, transform, squaredToleranc
geoM = interpolate(fracM);
m = transform(geoM);
if (squaredSegmentDistance(m[0], m[1], a[0], a[1],
b[0], b[1]) < squaredTolerance) {
b[0], b[1]) < squaredTolerance) {
// If the m point is sufficiently close to the straight line, then we
// discard it. Just use the b coordinate and move on to the next line
// segment.
@@ -91,39 +91,39 @@ _ol_geom_flat_geodesic_.line_ = function(interpolate, transform, squaredToleranc
* @return {Array.<number>} Flat coordinates.
*/
_ol_geom_flat_geodesic_.greatCircleArc = function(
lon1, lat1, lon2, lat2, projection, squaredTolerance) {
lon1, lat1, lon2, lat2, projection, squaredTolerance) {
var geoProjection = getProjection('EPSG:4326');
const geoProjection = getProjection('EPSG:4326');
var cosLat1 = Math.cos(toRadians(lat1));
var sinLat1 = Math.sin(toRadians(lat1));
var cosLat2 = Math.cos(toRadians(lat2));
var sinLat2 = Math.sin(toRadians(lat2));
var cosDeltaLon = Math.cos(toRadians(lon2 - lon1));
var sinDeltaLon = Math.sin(toRadians(lon2 - lon1));
var d = sinLat1 * sinLat2 + cosLat1 * cosLat2 * cosDeltaLon;
const cosLat1 = Math.cos(toRadians(lat1));
const sinLat1 = Math.sin(toRadians(lat1));
const cosLat2 = Math.cos(toRadians(lat2));
const sinLat2 = Math.sin(toRadians(lat2));
const cosDeltaLon = Math.cos(toRadians(lon2 - lon1));
const sinDeltaLon = Math.sin(toRadians(lon2 - lon1));
const d = sinLat1 * sinLat2 + cosLat1 * cosLat2 * cosDeltaLon;
return _ol_geom_flat_geodesic_.line_(
/**
/**
* @param {number} frac Fraction.
* @return {ol.Coordinate} Coordinate.
*/
function(frac) {
if (1 <= d) {
return [lon2, lat2];
}
var D = frac * Math.acos(d);
var cosD = Math.cos(D);
var sinD = Math.sin(D);
var y = sinDeltaLon * cosLat2;
var x = cosLat1 * sinLat2 - sinLat1 * cosLat2 * cosDeltaLon;
var theta = Math.atan2(y, x);
var lat = Math.asin(sinLat1 * cosD + cosLat1 * sinD * Math.cos(theta));
var lon = toRadians(lon1) +
function(frac) {
if (1 <= d) {
return [lon2, lat2];
}
const D = frac * Math.acos(d);
const cosD = Math.cos(D);
const sinD = Math.sin(D);
const y = sinDeltaLon * cosLat2;
const x = cosLat1 * sinLat2 - sinLat1 * cosLat2 * cosDeltaLon;
const theta = Math.atan2(y, x);
const lat = Math.asin(sinLat1 * cosD + cosLat1 * sinD * Math.cos(theta));
const lon = toRadians(lon1) +
Math.atan2(Math.sin(theta) * sinD * cosLat1,
cosD - sinLat1 * Math.sin(lat));
return [toDegrees(lon), toDegrees(lat)];
}, getTransform(geoProjection, projection), squaredTolerance);
cosD - sinLat1 * Math.sin(lat));
return [toDegrees(lon), toDegrees(lat)];
}, getTransform(geoProjection, projection), squaredTolerance);
};
@@ -137,16 +137,16 @@ _ol_geom_flat_geodesic_.greatCircleArc = function(
* @return {Array.<number>} Flat coordinates.
*/
_ol_geom_flat_geodesic_.meridian = function(lon, lat1, lat2, projection, squaredTolerance) {
var epsg4326Projection = getProjection('EPSG:4326');
const epsg4326Projection = getProjection('EPSG:4326');
return _ol_geom_flat_geodesic_.line_(
/**
/**
* @param {number} frac Fraction.
* @return {ol.Coordinate} Coordinate.
*/
function(frac) {
return [lon, lat1 + ((lat2 - lat1) * frac)];
},
getTransform(epsg4326Projection, projection), squaredTolerance);
function(frac) {
return [lon, lat1 + ((lat2 - lat1) * frac)];
},
getTransform(epsg4326Projection, projection), squaredTolerance);
};
@@ -160,15 +160,15 @@ _ol_geom_flat_geodesic_.meridian = function(lon, lat1, lat2, projection, squared
* @return {Array.<number>} Flat coordinates.
*/
_ol_geom_flat_geodesic_.parallel = function(lat, lon1, lon2, projection, squaredTolerance) {
var epsg4326Projection = getProjection('EPSG:4326');
const epsg4326Projection = getProjection('EPSG:4326');
return _ol_geom_flat_geodesic_.line_(
/**
/**
* @param {number} frac Fraction.
* @return {ol.Coordinate} Coordinate.
*/
function(frac) {
return [lon1 + ((lon2 - lon1) * frac), lat];
},
getTransform(epsg4326Projection, projection), squaredTolerance);
function(frac) {
return [lon1 + ((lon2 - lon1) * frac), lat];
},
getTransform(epsg4326Projection, projection), squaredTolerance);
};
export default _ol_geom_flat_geodesic_;