Top 10 Examples of "geolib in functional component" in JavaScript
Dive into secure and efficient coding practices with our curated list of the top 10 examples showcasing 'geolib' in functional components in JavaScript. Our advanced machine learning engine meticulously scans each line of code, cross-referencing millions of open source libraries to ensure your implementation is not just functional, but also robust and secure. Elevate your React applications to new heights by mastering the art of handling side effects, API calls, and asynchronous operations with confidence and precision.
points.forEach((point, index) => {
const nextPoint = points[index + 1];
if(nextPoint && !nextPoint.final == true) {
// calculate distance between each point
const distance = Math.round(GeoLib.getDistance(point, nextPoint));
const bearing = GeoLib.getBearing(point, nextPoint);
if(bearing !== 0) {
if (distance > 1) {
for (var x = 1; x < distance; x++) {
result.push(Object.assign({}, {bearing}, GeoLib.computeDestinationPoint(point, x, bearing)));
}
} else {
result.push(Object.assign({}, {bearing}, point));
}
}
}function distanceToPath(lat, lon){
let min = 100000; //in KM
let poi = {latitude: lat, longitude: lon};
for (var i = 0; i < pathPoints.length; i++) {
let dist = geolib.getDistance(poi, {latitude: pathPoints[i][0], longitude: pathPoints[i][1]}) / 1000;
if (dist > min) break;
min = dist;
}
return min; //in KM
}
/* eslint-enable no-console */onCapturePress() {
let team = '';
for (let i=0; ipoints.forEach((point, index) => {
const nextPoint = points[index + 1];
if(nextPoint && !nextPoint.final == true) {
// calculate distance between each point
const distance = Math.round(GeoLib.getDistance(point, nextPoint));
const bearing = GeoLib.getBearing(point, nextPoint);
if(bearing !== 0) {
if (distance > 1) {
for (var x = 1; x < distance; x++) {
result.push(Object.assign({}, {bearing}, GeoLib.computeDestinationPoint(point, x, bearing)));
}
} else {
result.push(Object.assign({}, {bearing}, point));
}
}
}
});const d2r = Math.PI / 180; // degrees to radians
const r2d = 180 / Math.PI; // radians to degrees
const points = 32;
let result = [];
// find the radius in lat/lon
//const rlat = (radius / EARTH_RADIUS_METERS) * r2d;
//const rlng = rlat / Math.cos({coordinate.latitude * d2r);
if (initialBearing > finalBearing) finalBearing += 360;
let deltaBearing = finalBearing - initialBearing;
deltaBearing = deltaBearing/points;
for (let i=0; (i < points+1); i++)
{
result.push(geolib.computeDestinationPoint(coordinate, radius, initialBearing + i*deltaBearing));
}
return result;
};function calculateExtensionLine(position, course, speed, extensionLineSetting) {
if (extensionLineSetting === EXTENSION_LINE_OFF) {
return undefined
}
const time = 60 * parseInt(extensionLineSetting)
if (position && position.latitude && position.longitude && course && speed > 0.5) {
const distance = speed * time // Speed in m/s
const start = [position.latitude, position.longitude]
const destination = computeDestinationPoint(
{lat: position.latitude, lon: position.longitude},
distance,
toDegrees(course)
)
const middle = computeDestinationPoint(
{lat: position.latitude, lon: position.longitude},
distance / 2,
toDegrees(course)
)
return {
start,
middle: [middle.latitude, middle.longitude],
end: [destination.latitude, destination.longitude]
}
}
return undefined
}function calculateExtensionLine(position, course, speed, extensionLineSetting) {
if (extensionLineSetting === EXTENSION_LINE_OFF) {
return undefined
}
const time = 60 * parseInt(extensionLineSetting)
if (position && position.latitude && position.longitude && course && speed > 0.5) {
const distance = speed * time // Speed in m/s
const start = [position.latitude, position.longitude]
const destination = computeDestinationPoint(
{lat: position.latitude, lon: position.longitude},
distance,
toDegrees(course)
)
const middle = computeDestinationPoint(
{lat: position.latitude, lon: position.longitude},
distance / 2,
toDegrees(course)
)
return {
start,
middle: [middle.latitude, middle.longitude],
end: [destination.latitude, destination.longitude]
}
}
return undefinedconst nextPoint = points[index + 1];
if(nextPoint && !nextPoint.final == true) {
// calculate distance between each point
const distance = Math.round(GeoLib.getDistance(point, nextPoint));
const bearing = GeoLib.getBearing(point, nextPoint);
if(bearing !== 0) {
if (distance > 1) {
for (var x = 1; x < distance; x++) {
result.push(Object.assign({}, {bearing}, GeoLib.computeDestinationPoint(point, x, bearing)));
}
} else {
result.push(Object.assign({}, {bearing}, point));
}
}
}
});} = this.state
const hasSearchValue = searchValue.trim().length > 0
const isPositionSet = searchLat !== null && searchLng !== null
let filteredClubs = [] // We want to show every club by default, but it'll cause a significant decrease in performance
if (searchByLocation) {
if (isPositionSet) {
const center = { latitude: searchLat, longitude: searchLng }
const conversionConstant = useImperialSystem
? MILE_TO_METER
: KILOMETER_TO_METER
const filteredPoints = getPointsInCircle(
clubs,
center,
searchRadius * conversionConstant
)
filteredClubs = geolib
.orderByDistance(center, filteredPoints)
.map(({ key }) => filteredPoints[key]) // Needed because Geolib returns a differently-shaped object
}
} else {
if (hasSearchValue) {
filteredClubs = this.fuse.search(searchValue)
}
}
return filteredClubs
}getDelta = (selectedCoordinate: LatLng, coordinates: LatLng[]) => {
const distances = orderByDistance(selectedCoordinate, coordinates);
if (coordinates.length === 1) {
return {
longitudeDelta: 0.005,
latitudeDelta: 0.005,
};
}
// Use median to filter out extreme positions to compute more appropriate region
const lowMiddle = Math.floor((distances.length - 1) / 2);
const highMiddle = Math.ceil((distances.length - 1) / 2);
const median = (distances[lowMiddle].distance + distances[highMiddle].distance) / 2;
const validDistances =
distances.length > 2
? distances
.filter(({ distance }) => median * 1.5 > distance)