Files
wavelog/assets/js/sections/flightpath.js
2025-07-08 14:07:13 +02:00

839 lines
26 KiB
JavaScript

let lastUpdateTime = 0; // Track the last update time
var satmarker;
let maidenhead;
let leafletMap;
let saticon = L.divIcon({
html: '<i class="fa-solid fa-satellite" style="font-size: 24px; color: black; -webkit-text-stroke: 1px white;"></i>',
className: '', // Prevents default Leaflet styles
iconSize: [30, 30],
iconAnchor: [15, 15] // Center the icon
});
let pasticon = L.divIcon({
html: '<i class="fa-solid fa-satellite" style="font-size: 24px; opacity: 0.75; color: grey; -webkit-text-stroke: 1px white;"></i>',
className: '',
iconSize: [30, 30],
iconAnchor: [15, 15]
});
let futureicon = L.divIcon({
html: '<i class="fa-solid fa-satellite" style="font-size: 24px; opacity: 0.75; color: grey; -webkit-text-stroke: 1px white;"></i>',
className: '',
iconSize: [30, 30],
iconAnchor: [15, 15]
});
let homeicon = L.icon({ iconUrl: icon_home_url, iconSize: [15, 15] });
let observerGd = {
longitude: satellite.degreesToRadians(homelon),
latitude: satellite.degreesToRadians(homelat),
height: 0.370
};
let sats = (function (L, d3, satelliteJs) {
let RADIANS = Math.PI / 180;
let DEGREES = 180 / Math.PI;
let R_EARTH = 6378.137; // equatorial radius (km)
/* =============================================== */
/* =============== CLOCK ========================= */
/* =============================================== */
/**
* Factory function for keeping track of elapsed time and rates.
*/
function Clock() {
this._rate = 60; // 1ms elapsed : 60sec simulated
this._date = d3.now();
this._elapsed = 0;
};
Clock.prototype.date = function (timeInMs) {
if (!arguments.length) return this._date + (this._elapsed * this._rate);
this._date = timeInMs;
return this;
};
Clock.prototype.elapsed = function (ms) {
if (!arguments.length) return this._date - d3.now(); // calculates elapsed
this._elapsed = ms;
return this;
};
Clock.prototype.rate = function (secondsPerMsElapsed) {
if (!arguments.length) return this._rate;
this._rate = secondsPerMsElapsed;
return this;
};
/* ==================================================== */
/* =============== CONVERSION ========================= */
/* ==================================================== */
function satrecToFeature(satrec, date, props) { // DJ7NT: This is never called
let properties = props || {};
let positionAndVelocity = satelliteJs.propagate(satrec, date);
let gmst = satelliteJs.gstime(date);
let positionGd = satelliteJs.eciToGeodetic(positionAndVelocity.position, gmst);
properties.height = positionGd.height;
return {
type: "FeatureCollection",
"features": [ {
type: 'Feature',
properties: properties,
geometry: {
type: 'Point',
coordinates: [
positionGd.longitude * DEGREES,
positionGd.latitude * DEGREES
]
}
},
{
type: 'Feature',
properties: {infoText: 'blabla'},
geometry: {
type: 'Point',
coordinates: [
positionGd.longitude * DEGREES,
positionGd.latitude * DEGREES
]
}
}]
};
};
/* ==================================================== */
/* =============== TLE ================================ */
/* ==================================================== */
/**
* Factory function for working with TLE.
*/
function TLE() {
this._properties;
this._date;
};
TLE.prototype._lines = function (arry) {
return arry.slice(0, 2);
};
TLE.prototype.satrecs = function (tles) {
return tles.map(function (d) {
return satelliteJs.twoline2satrec.apply(null, this._lines(d));
});
};
TLE.prototype.features = function (tles) {
let date = this._date || d3.now();
return tles.map(function (d) {
let satrec = satelliteJs.twoline2satrec.apply(null, this._lines(d));
return satrecToFeature(satrec, date, this._properties(d));
});
};
TLE.prototype.lines = function (func) {
if (!arguments.length) return this._lines;
this._lines = func;
return this;
};
TLE.prototype.properties = function (func) {
if (!arguments.length) return this._properties;
this._properties = func;
return this;
};
TLE.prototype.date = function (ms) {
if (!arguments.length) return this._date;
this._date = ms;
return this;
};
/* ==================================================== */
/* =============== PARSE ============================== */
/* ==================================================== */
/**
* Parses text file string of tle into groups.
* @return {string[][]} Like [['tle line 1', 'tle line 2'], ...]
*/
function parseTle(tleString) {
// remove last newline so that we can properly split all the lines
let lines = tleString.replace(/\r?\n$/g, '').split(/\r?\n/);
return lines.reduce(function (acc, cur, index) {
if (index % 2 === 0) acc.push([]);
acc[acc.length - 1].push(cur);
return acc;
}, []);
};
/* ==================================================== */
/* =============== SATELLITE ========================== */
/* ==================================================== */
/**
* Satellite factory function that wraps satellitejs functionality
* and can compute footprints based on TLE and date
*
* @param {string[][]} tle two-line element
* @param {Date} date date to propagate with TLE
*/
function Satellite(tle, date) {
this._satrec = satelliteJs.twoline2satrec(tle[0], tle[1]);
this._satNum = this._satrec.satnum; // NORAD Catalog Number
this._altitude; // km
this._position = {
lat: null,
lng: null
};
this._halfAngle; // degrees
this._date;
this._gmst;
this.setDate(date);
this.update();
this._orbitType = this.orbitTypeFromAlt(this._altitude); // LEO, MEO, or GEO
};
function computePath(satrec, date, minutesBack, minutesAhead, stepSeconds) {
let pastSegments = [[]]; // Store separate path segments for past
let futureSegments = [[]]; // Store separate path segments for future
let lastLng = null;
for (let t = -minutesBack * 60; t <= minutesAhead * 60; t += stepSeconds) {
let newDate = new Date(date.getTime() + t * 1000);
let gmst = satelliteJs.gstime(newDate);
let positionAndVelocity = satelliteJs.propagate(satrec, newDate);
if (!positionAndVelocity.position) continue;
let positionGd = satelliteJs.eciToGeodetic(positionAndVelocity.position, gmst);
let lat = positionGd.latitude * DEGREES;
let lng = positionGd.longitude * DEGREES;
// Handle Antimeridian crossing
if (lastLng !== null && Math.abs(lng - lastLng) > 180) {
if (t < 0) {
pastSegments.push([]); // Start a new segment for past path
} else {
futureSegments.push([]); // Start a new segment for future path
}
}
// Add the current point to the correct segment
if (t < 0) {
pastSegments[pastSegments.length - 1].push([lat, lng]);
} else {
futureSegments[futureSegments.length - 1].push([lat, lng]);
}
lastLng = lng; // Update last longitude
}
return { pastSegments, futureSegments };
}
// Update function for satellite
Satellite.prototype.update = function () {
try {
let positionAndVelocity = satelliteJs.propagate(this._satrec, this._date);
let positionGd = satelliteJs.eciToGeodetic(positionAndVelocity.position, this._gmst);
let positionEcf = satelliteJs.eciToEcf(positionAndVelocity.position, this._gmst);
let lA = satelliteJs.ecfToLookAngles(observerGd, positionEcf);
this._lookAngles = {
azimuth: lA.azimuth * DEGREES,
elevation: lA.elevation * DEGREES,
rangeSat: lA.rangeSat
};
this._position = {
lat: positionGd.latitude * DEGREES,
lng: positionGd.longitude * DEGREES
};
this._altitude = positionGd.height;
// Update satellite marker
satmarker.setLatLng(this._position);
if (this._altitude < 35700 || this._altitude > 36000) {
pastmarker.remove();
futuremarker.remove();
pastmarker.addTo(leafletMap)
futuremarker.addTo(leafletMap)
// Compute paths with Antimeridian handling
let { pastSegments, futureSegments } = computePath(this._satrec, this._date, 100, 100, 10);
pastmarker.setLatLng({lat: pastSegments[0][0][0], lng: pastSegments[0][0][1]});
futuremarker.setLatLng({lat: futureSegments[(futureSegments.length - 1)][futureSegments[(futureSegments.length - 1)].length - 1][0], lng: futureSegments[(futureSegments.length - 1)][futureSegments[(futureSegments.length - 1)].length - 1][1]});
// Remove old polylines if they exist
if (this._pastTrajectories) {
this._pastTrajectories.forEach(poly => leafletMap.removeLayer(poly));
}
if (this._futureTrajectories) {
this._futureTrajectories.forEach(poly => leafletMap.removeLayer(poly));
}
// Draw new trajectory segments
this._pastTrajectories = pastSegments.map(segment =>
L.polyline(segment, { color: 'red' }).addTo(leafletMap)
);
this._futureTrajectories = futureSegments.map(segment =>
L.polyline(segment, { color: 'green' }).addTo(leafletMap)
);
// 📌 **Fix Arrow Direction Using Ground Track Bearing**
let nextDate = new Date(this._date.getTime() + 10000); // 5 sec into the future
let nextPos = satelliteJs.propagate(this._satrec, nextDate);
let nextGd = satelliteJs.eciToGeodetic(nextPos.position, this._gmst);
let nextLat = nextGd.latitude * DEGREES;
let nextLng = nextGd.longitude * DEGREES;
let heading = getBearing(this._position.lat, this._position.lng, nextLat, nextLng);
// Remove old arrow marker if it exists
if (this._directionArrow) {
leafletMap.removeLayer(this._directionArrow);
}
// Define arrow icon using an SVG
let arrowIcon = L.divIcon({
className: "custom-arrow",
html: `<div style="
transform: rotate(${heading-90}deg);
font-size: 20px;
color: yellow;
">➤</div>`, // Unicode arrow
iconSize: [20, 20],
iconAnchor: [15, -15]
});
// Offset the arrow slightly ahead of the satellite position
let arrowOffset = 0.1; // Small offset factor
let arrowLat = this._position.lat + arrowOffset * Math.sin(heading * (Math.PI / 180));
let arrowLng = this._position.lng + arrowOffset * Math.cos(heading * (Math.PI / 180));
// Add the arrow marker
this._directionArrow = L.marker([arrowLat, arrowLng], { icon: arrowIcon }).addTo(leafletMap);
}
} catch (e) {
console.error("Error updating satellite:", e);
}
};
/**
* Compute bearing (heading) between two lat/lng points
*/
function getBearing(lat1, lng1, lat2, lng2) {
let phi1 = lat1 * Math.PI / 180;
let phi2 = lat2 * Math.PI / 180;
let deltaPi = (lng2 - lng1) * Math.PI / 180;
let y = Math.sin(deltaPi) * Math.cos(phi2);
let x = Math.cos(phi1) * Math.sin(phi2) - Math.sin(phi1) * Math.cos(phi2) * Math.cos(deltaPi);
let theta = Math.atan2(y, x);
return (theta * 180 / Math.PI + 360) % 360; // Normalize to 0-360
}
/**
* @returns {GeoJSON.Polygon} GeoJSON describing the satellite's current footprint on the Earth
*/
Satellite.prototype.getFootprint = function () {
let theta = this._halfAngle * RADIANS;
coreAngle = this._coreAngle(theta, this._altitude, R_EARTH) * DEGREES;
return d3.geoCircle()
.center([this._position.lng, this._position.lat])
.radius(coreAngle)();
};
Satellite.prototype.getLocation = function () {
return d3.geoCircle()
.center([this._position.lng, this._position.lat])
.radius(1)();
};
/**
* A conical satellite with half angle casts a circle on the Earth. Find the angle
* from the center of the earth to the radius of this circle
* @param {number} theta: Satellite half angle in radians
* @param {number} altitude Satellite altitude
* @param {number} r Earth radius
* @returns {number} core angle in radians
*/
Satellite.prototype._coreAngle = function (theta, altitude, r) {
// if FOV is larger than Earth, assume it goes to the tangential point
// if (Math.sin(theta) != r / (altitude + r)) {
return Math.acos(r / (r + altitude));
// }
// return Math.abs(Math.asin((r + altitude) * Math.sin(theta) / r)) - theta;
};
Satellite.prototype.halfAngle = function (halfAngle) {
if (!arguments.length) return this._halfAngle;
this._halfAngle = halfAngle;
return this;
};
Satellite.prototype.satNum = function (satNum) {
if (!arguments.length) return this._satNum;
this._satNum = satNum;
return this;
};
Satellite.prototype.altitude = function (altitude) {
if (!arguments.length) return this._altitude;
this._altitude = altitude;
return this;
};
Satellite.prototype.position = function (position) {
if (!arguments.length) return this._position;
this._position = position;
return this;
};
Satellite.prototype.getOrbitType = function () {
return this._orbitType;
};
/**
* sets both the date and the Greenwich Mean Sidereal Time
* @param {Date} date
*/
Satellite.prototype.setDate = function (date) {
this._date = date;
this._gmst = satelliteJs.gstime(date);
return this;
};
/**
* Maps an altitude to a type of satellite
* @param {number} altitude (in KM)
* @returns {'LEO' | 'MEO' | 'GEO'}
*/
Satellite.prototype.orbitTypeFromAlt = function (altitude) {
this._altitude = altitude || this._altitude;
return this._altitude < 2000 ? 'LEO' : this._altitude > 22000 ? 'GEO' : 'MEO';
};
/* =============================================== */
/* =============== LEAFLET MAP =================== */
/* =============================================== */
// Approximate date the tle data was aquired from https://www.space-track.org/#recent
// let TLE_DATA_DATE = new Date(2024, 04, 18).getTime();
let TLE_DATA_DATE = Date.now();
let attributionControl;
let activeClock;
let sats;
let svgLayer;
function projectPointCurry(map) {
return function (x, y) {
const point = map.latLngToLayerPoint(L.latLng(y, x));
this.stream.point(point.x, point.y);
}
};
function init(satellite) {
svgLayer = L.svg();
leafletMap = L.map('sat_map', {
zoom: 3,
minZoom: 1,
center: [20, 0],
// attributionControl: false,
layers: [
L.tileLayer(tileUrl, {
// noWrap: false,
}),
svgLayer
]
});
satmarker = L.marker(
[0, 0], {
icon: saticon,
zIndex: 1000,
}
).addTo(leafletMap).on('click', displayUpComingPasses);
pastmarker = L.marker(
[0, 0], {
icon: pasticon,
zIndex: 1000,
}
);
pastmarker.bindTooltip("-90 min", { permanent: true, offset: [15, 15], className: '', opacity: 0.65 });
futuremarker = L.marker(
[0, 0], {
icon: futureicon,
zIndex: 1000,
}
);
futuremarker.bindTooltip("+90 min", { permanent: true, offset: [15, 15], className: '', opacity: 0.65 });
// Add an always-visible label (tooltip)
satmarker.bindTooltip(satellite, {
permanent: true, // Always visible
direction: "top", // Position label above the marker
offset: [0, -20], // Adjust position
title: satellite,
className: "satellite-label" // Optional: Custom CSS
});
L.marker(
[homelat, homelon], {
icon: homeicon,
title: 'Home',
zIndex: 1000,
}
).addTo(leafletMap);
/*Legend specific*/
let legend = L.control({ position: "topright" });
legend.onAdd = function(map) {
let div = L.DomUtil.create("div", "legend");
let html = "<h4>Satellite Details</h4>";
html += "<table>";
html += '<tr><td><span>Satellite</span></td><td align="right"><span id="satname"></span></td></tr>';
html += '<tr><td><span>Orbit</span></td><td align="right"><span id="satorbit"></span></td></tr>';
html += '<tr><td><span>Altitude</span></td><td align="right"><span id="satalt"></span></td></tr>';
html += '<tr><td><span>Azimuth</span></td><td align="right"><span id="az"></span></td></tr>';
html += '<tr><td><span>Elevation</span></td><td align="right"><span id="ele"></span></td></tr>';
html += '<tr><td><span>Gridsquare</span></td><td align="right"><span id="grid"></span></td></tr>';
html += '<tr><td><span>Status</span></td><td align="right"><span id="status"></span></td></tr>';
html += '<tr><td><span id="LAOS">AOS Az</span></td><td align="right"><span id="osaz"></span></td></tr>';
html += '<tr><td><span>Visible</span></td><td align="right"><span id="visibility"></span></td></tr>';
html += '<tr><td><input type="checkbox" onclick="toggleGridsquares(this.checked)" checked="checked" style="outline: none;"></td><td><span> ' + lang_gen_hamradio_gridsquares + '</span></td></tr>';
html += "</table>";
div.innerHTML = html;
return div;
};
legend.addTo(leafletMap);
maidenhead = L.maidenhead().addTo(leafletMap);
attributionControl = L.control.attribution({
prefix: ''
}).addTo(leafletMap);
let transform = d3.geoTransform({
point: projectPointCurry(leafletMap)
});
path = d3.geoPath()
.projection(transform)
.pointRadius(2.5);
};
function updateSats(date) {
sats.forEach(function (sat) {
sat.setDate(date).update();
let az = (Math.round((sat._lookAngles.azimuth * 10), 2) / 10).toFixed(1);
let ele = (Math.round((sat._lookAngles.elevation * 10), 2) / 10).toFixed(1);
if (ele > 0) { // Satellite is in view
let [nextLOS,losaz] = findNextEvent(sat, date, 1440, "LOS");
$("#status").html(nextLOS ? `LOS in ${nextLOS}` : "No LOS found in next 24h");
$("#visibility").html("<div class='bg-success awards BgSuccess text-center'>Yes</div>");
$("#LAOS").html('LOS Az');
$("#osaz").html(losaz !== null ? losaz+'&deg;' : 'n/a');
} else { // Satellite is below horizon
let [nextAOS,aosaz] = findNextEvent(sat, date, 1440, "AOS");
$("#status").html(nextAOS ? `AOS in ${nextAOS}` : "No AOS found in next 24h");
$("#visibility").html("<div class='bg-danger awards BgDanger text-center'>No</div>");
$("#LAOS").html('AOS Az');
$("#osaz").html(aosaz !== null ? aosaz+'&deg;' : 'n/a');
}
az = "<b>" + az + "°</b>";
ele = "<b>" + ele + "°</b>";
$("#az").html(az);
$("#ele").html(ele);
$("#satorbit").html(sat.getOrbitType());
$("#satalt").html(Math.round(sat.altitude()) + " km");
$("#grid").html(latLngToLocator(sat._position.lat, sat._position.lng));
});
}
function findNextEvent(sat, observerDate, maxMinutesAhead = 1440, eventType = "AOS") {
let stepSeconds = 1;
let currentTime = new Date(observerDate);
let lastElevation = -90; // Default below horizon
for (let t = 0; t <= maxMinutesAhead * 60; t += stepSeconds) {
let futureTime = new Date(currentTime.getTime() + t * 1000);
let gmst = satelliteJs.gstime(futureTime);
let positionAndVelocity = satelliteJs.propagate(sat._satrec, futureTime);
if (!positionAndVelocity.position) continue;
let positionGd = satelliteJs.eciToGeodetic(positionAndVelocity.position, gmst);
let positionEcf = satelliteJs.eciToEcf(positionAndVelocity.position, gmst);
let lookAngles = satelliteJs.ecfToLookAngles(observerGd, positionEcf);
let elevation = lookAngles.elevation;
if (eventType === "AOS" && lastElevation <= 0 && elevation > 0) {
let timeDiff = Math.round((futureTime - currentTime) / 1000); // Seconds
let aosaz = (Math.round((satelliteJs.radiansToDegrees(lookAngles.azimuth) * 10), 2) / 10).toFixed(1);
return [formatCountdown(timeDiff), aosaz];
}
if (eventType === "LOS" && lastElevation > 0 && elevation <= 0) {
let timeDiff = Math.round((futureTime - currentTime) / 1000); // Seconds
let losaz = (Math.round((satelliteJs.radiansToDegrees(lookAngles.azimuth) * 10), 2) / 10).toFixed(1);
return [formatCountdown(timeDiff),losaz];
}
lastElevation = elevation; // Store previous elevation
}
return [null,null]; // No event found
}
function formatCountdown(seconds) {
let min = Math.floor(seconds / 60);
let sec = seconds % 60;
return `${min}m ${sec}s`;
}
/**
* Create satellite objects for each record in the TLEs and begin animation
* @param {string[][]} parsedTles
*/
function initSats(parsedTles) {
activeClock = new Clock()
.rate(1)
.date(TLE_DATA_DATE);
sats = parsedTles.map(function (tle) {
let sat = new Satellite(tle, new Date());
sat.halfAngle(30);
// sat.halfAngle(sat.getOrbitType() === 'LEO' ? Math.random() * (30 - 15) + 15 : Math.random() * 4 + 1);
return sat;
});
leafletMap.on('zoom', draw);
window.requestAnimationFrame(animateSats);
return sats;
};
function invertProjection(projection) {
return function (x, y) {
const point = projection.invert([x, y]);
this.stream.point(point[0], point[1]);
};
}
function clipMercator(geoJson) {
const mercator = d3.geoMercator();
const inverseMercator = d3.geoTransform({
point: invertProjection(mercator)
});
// D3 geoProject handles Mercator clipping
const newJson = d3.geoProject(geoJson, mercator);
return d3.geoProject(newJson, inverseMercator);
}
function draw() {
let transform = d3.geoTransform({
point: projectPointCurry(leafletMap)
});
let geoPath = d3.geoPath()
.projection(transform);
d3.select(svgLayer._container)
.selectAll('.footprint')
.data(sats, function (sat) {
return sat._satNum; // DJ7NT: This is the Number of the SAT
})
.join(
function (enter) {
return enter.append('path').attr('class', function (sat) {
return 'footprint footprint--' + sat.getOrbitType();
});
},
function (update) {
return update;
},
function (exit) {
return exit.remove();
}
).attr('d', function (sat) {
// return geoPath(clipMercator(sat.getLocation())); // DJ7NT: this is the "point" of the SAT
let xx= geoPath(clipMercator(sat.getFootprint()));
return xx;
});
};
function animateSats(elapsed) {
let dateInMs = activeClock.elapsed(elapsed).date();
let date = new Date(dateInMs);
attributionControl.setPrefix(date);
if (dateInMs - lastUpdateTime >= 1000) { // Only update every 1 second
updateSats(date);
lastUpdateTime = dateInMs;
}
draw();
window.requestAnimationFrame(animateSats);
}
function start(data) {
init((data.satellite != '' ? (data.satellite+' ('+data.displayname+')') : data.displayname));
initSats(parseTle(data.tle));
}
return {
start: start
};
}(window.L, window.d3, window.satellite))
function plot_sat() {
let container = L.DomUtil.get('sat_map');
if(container != null){
container._leaflet_id = null;
container.remove();
}
amap = $('#sat_map').val();
if (amap == undefined) {
$("#satcontainer").append('<div id="sat_map" class="map-leaflet" style="width: 100%; height: 85vh"></div>');
}
$.ajax({
url: base_url + 'index.php/satellite/get_tle',
type: 'post',
data: {
sat: $("#sats").val(),
},
success: function (data) {
sats.start(data);
$("#satname").html($("#sats :selected").text());
},
error: function (data) {
alert('Something went wrong!');
},
});
}
function toggleGridsquares(bool) {
if(!bool) {
leafletMap.removeLayer(maidenhead);
} else {
maidenhead.addTo(leafletMap);
}
};
$( document ).ready(function() {
if ($("#sats").val() != '') {
plot_sat();
}
});
function displayUpComingPasses(e) {
$.ajax({
url: base_url + 'index.php/satellite/searchPasses',
type: 'post',
data: {'sat': $("#sats").val(),
'yourgrid': homegrid,
'minelevation': 0,
'minazimuth': 0,
'maxazimuth': 360,
'date': new Date().toISOString().slice(0, 10),
'mintime': new Date().toISOString().slice(11, 13),
},
success: function (html) {
let dialog = new BootstrapDialog({
title: lang_gen_hamradio_upcoming_passes + ' ' + $("#sats").val(),
size: BootstrapDialog.SIZE_WIDE,
cssClass: 'qso-dialog',
nl2br: false,
message: html,
onshown: function(dialog) {
$('[data-bs-toggle="tooltip"]').tooltip();
$('.satpasstable').DataTable({
"pageLength": 25,
responsive: false,
ordering: false,
"scrollY": "550px",
"scrollCollapse": true,
"paging": false,
"scrollX": true,
"language": {
url: getDataTablesLanguageUrl(),
},
dom: 'Bfrtip',
buttons: [
{
extend: 'csv',
className: 'mb-1 btn btn-primary', // Bootstrap classes
init: function(api, node, config) {
$(node).removeClass('dt-button').addClass('btn btn-primary'); // Ensure Bootstrap class applies
},
}
]
});
$('.satelliteinfo').click(function (event) {
getSatelliteInfo(this);
});
},
buttons: [{
label: lang_admin_close,
action: function (dialogItself) {
dialogItself.close();
}
}]
});
dialog.realize();
$('#satcontainer').append(dialog.getModal());
dialog.open();
}
});
}
function getSatelliteInfo(element) {
var satname = $(element).closest('td').contents().first().text().trim();
$.ajax({
url: base_url + 'index.php/satellite/getSatelliteInfo',
type: 'post',
data: {'sat': satname,
},
success: function (html) {
BootstrapDialog.show({
title: lang_gen_hamradio_sat_info,
size: BootstrapDialog.SIZE_WIDE,
cssClass: 'information-dialog',
nl2br: false,
message: html,
buttons: [{
label: lang_admin_close,
action: function (dialogItself) {
dialogItself.close();
}
}]
});
},
error: function(e) {
}
});
}