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node_modules
.git
.gitignore
*.md
dist
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v22
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public
pnpm-lock.yaml
node_modules
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{
"printWidth": 120,
"tabWidth": 2,
"semi": true,
"trailingComma": "es5",
"singleQuote": true,
"arrowParens": "always",
"plugins": ["prettier-plugin-organize-imports", "prettier-plugin-tailwindcss"]
}
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FROM node:lts-alpine AS base
ENV PNPM_HOME="/pnpm"
ENV PATH="$PNPM_HOME:$PATH"
RUN corepack enable
COPY . /app
WORKDIR /app
FROM base AS prod-deps
RUN --mount=type=cache,id=pnpm,target=/pnpm/store pnpm install --prod --frozen-lockfile
FROM base AS build
RUN --mount=type=cache,id=pnpm,target=/pnpm/store pnpm install --frozen-lockfile
RUN pnpm run build
FROM base
COPY --from=prod-deps /app/node_modules /app/node_modules
COPY --from=build /app/dist /app/dist
EXPOSE 3003
ENTRYPOINT [ "pnpm", "serve" ]
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# React + TypeScript + Vite
This template provides a minimal setup to get React working in Vite with HMR and some ESLint rules.
Currently, two official plugins are available:
- [@vitejs/plugin-react](https://github.com/vitejs/vite-plugin-react/blob/main/packages/plugin-react) uses [Babel](https://babeljs.io/) for Fast Refresh
- [@vitejs/plugin-react-swc](https://github.com/vitejs/vite-plugin-react/blob/main/packages/plugin-react-swc) uses [SWC](https://swc.rs/) for Fast Refresh
## Expanding the ESLint configuration
If you are developing a production application, we recommend updating the configuration to enable type-aware lint rules:
```js
export default tseslint.config([
globalIgnores(['dist']),
{
files: ['**/*.{ts,tsx}'],
extends: [
// Other configs...
// Remove tseslint.configs.recommended and replace with this
...tseslint.configs.recommendedTypeChecked,
// Alternatively, use this for stricter rules
...tseslint.configs.strictTypeChecked,
// Optionally, add this for stylistic rules
...tseslint.configs.stylisticTypeChecked,
// Other configs...
],
languageOptions: {
parserOptions: {
project: ['./tsconfig.node.json', './tsconfig.app.json'],
tsconfigRootDir: import.meta.dirname,
},
// other options...
},
},
])
```
You can also install [eslint-plugin-react-x](https://github.com/Rel1cx/eslint-react/tree/main/packages/plugins/eslint-plugin-react-x) and [eslint-plugin-react-dom](https://github.com/Rel1cx/eslint-react/tree/main/packages/plugins/eslint-plugin-react-dom) for React-specific lint rules:
```js
// eslint.config.js
import reactX from 'eslint-plugin-react-x'
import reactDom from 'eslint-plugin-react-dom'
export default tseslint.config([
globalIgnores(['dist']),
{
files: ['**/*.{ts,tsx}'],
extends: [
// Other configs...
// Enable lint rules for React
reactX.configs['recommended-typescript'],
// Enable lint rules for React DOM
reactDom.configs.recommended,
],
languageOptions: {
parserOptions: {
project: ['./tsconfig.node.json', './tsconfig.app.json'],
tsconfigRootDir: import.meta.dirname,
},
// other options...
},
},
])
```
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networks:
traefik:
name: traefik
services:
md11-nav-data:
build: .
image: md11-nav-data
container_name: md11-nav-data-server
volumes:
- /Volumes/Data/DockerMD11NavData/NavData:/app/NavData
environment:
PORT: 3003
restart: always
networks:
- traefik
labels:
- "traefik.enable=true"
- "traefik.http.routers.md11-nav-data-router.rule=Host(`md11-nav-data.hofmannnet.myhome-server.de`)"
- "traefik.http.routers.md11-nav-data-router.service=md11-nav-data-service"
- "traefik.http.services.md11-nav-data-service.loadbalancer.server.port=3001"
- "traefik.http.routers.md11-nav-data-router.entrypoints=websecure"
- "traefik.http.routers.md11-nav-data-router.tls=true"
- "traefik.http.routers.md11-nav-data-router.tls.certresolver=letsencrypt"
- "traefik.http.routers.md11-nav-data-router.middlewares=md11-nav-data-auth"
- "traefik.http.middlewares.md11-nav-data-auth.basicauth.users=user:$2y$05$V2unQ5n4OnGBz8uV3fJuweKslSUk05zeh/T1cR2bSg3jXgA8cbPFi"
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import js from '@eslint/js';
import reactHooks from 'eslint-plugin-react-hooks';
import reactRefresh from 'eslint-plugin-react-refresh';
import { globalIgnores } from 'eslint/config';
import globals from 'globals';
import tseslint from 'typescript-eslint';
export default tseslint.config([
globalIgnores(['dist']),
{
files: ['**/*.{ts,tsx}'],
extends: [
js.configs.recommended,
tseslint.configs.recommended,
reactHooks.configs['recommended-latest'],
reactRefresh.configs.vite,
],
languageOptions: {
ecmaVersion: 2020,
globals: globals.browser,
},
rules: {
'@typescript-eslint/no-shadow': 'error',
'@typescript-eslint/no-unused-vars': [
'error',
{
destructuredArrayIgnorePattern: '^_+$',
},
],
},
},
]);
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<!doctype html>
<html lang="en">
<head>
<meta charset="UTF-8" />
<meta name="viewport" content="width=device-width, initial-scale=1.0" />
<link href="/src/style.css" rel="stylesheet">
<title>MD-11 NavData Browser</title>
</head>
<body>
<div id="root"></div>
<script type="module" src="/src/main.tsx"></script>
</body>
</html>
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{
"name": "browser",
"private": true,
"version": "0.0.0",
"type": "module",
"scripts": {
"dev": "vite --port 3000 --host",
"build": "tsc -b && vite build",
"lint": "eslint . --ext .ts,.tsx --fix",
"preview": "vite preview",
"serve": "pnpm npx http-server dist"
},
"dependencies": {
"browser-image-manipulation": "^0.4.0",
"geojson": "^0.5.0",
"geolib": "^3.3.4",
"leaflet": "^1.9.4",
"leaflet-svg-shape-markers": "^1.4.0",
"magvar": "^2.0.0",
"navigraph": "^1.4.1",
"qrcode.react": "^4.2.0",
"react": "^19.1.0",
"react-dom": "^19.1.0",
"react-leaflet": "^5.0.0",
"tailwindcss": "^4.1.11"
},
"devDependencies": {
"@eslint/js": "^9.31.0",
"@tailwindcss/vite": "^4.1.11",
"@types/leaflet": "^1.9.20",
"@types/object-hash": "^3.0.6",
"@types/react": "^19.1.8",
"@types/react-dom": "^19.1.6",
"@vitejs/plugin-react-swc": "^3.10.2",
"eslint": "^9.31.0",
"eslint-plugin-react-hooks": "^5.2.0",
"eslint-plugin-react-refresh": "^0.4.20",
"globals": "^16.3.0",
"object-hash": "^3.0.0",
"prettier": "^3.6.2",
"prettier-plugin-organize-imports": "^4.1.0",
"prettier-plugin-tailwindcss": "^0.6.14",
"typescript": "~5.8.3",
"typescript-eslint": "^8.37.0",
"vite": "^7.0.4"
}
}
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import type { DeviceFlowParams } from 'navigraph/auth';
import { QRCodeSVG } from 'qrcode.react';
import { useState } from 'react';
import { ProcedureSelect } from './components//ProcedureSelect';
import { Map } from './components/Map';
import { Sidebar } from './components/Sidebar';
import { useNavigraphAuth } from './contexts/NavigraphAuth/NavigraphAuthContext';
import Parser from './parser/parser';
const parser = await Parser.instance();
function App() {
const [selectedAirport, setSelectedAirport] = useState<Airport>();
const [selectedRunway, setSelectedRunway] = useState<Runway>();
const [selectedTerminal, setSelectedTerminal] = useState<Terminal>();
const [transitions, setTransitions] = useState<Procedure[]>([]);
const [params, setParams] = useState<DeviceFlowParams | null>(null);
const [selectedTransition, setSelectedTransition] = useState<Procedure>();
const [selectedChart, setSelectedChart] = useState<Chart>();
const { user, signIn, initialized } = useNavigraphAuth();
const handleSignIn = () => signIn((p) => setParams(p));
return (
<>
{!user ? (
<div className="flex min-h-dvh w-full">
{!initialized && <div>Loading...</div>}
{initialized && !params && !user && (
<div className="flex h-dvh w-dvw items-center justify-center">
<button
className="cursor-pointer rounded border border-gray-300 bg-gray-300 px-2 py-1 font-semibold focus:outline-2 focus-visible:outline-2 disabled:bg-gray-100"
onClick={handleSignIn}
>
Sign in to NG
</button>
</div>
)}
{params?.verification_uri_complete && !user && (
<div className="flex h-dvh w-dvw flex-col items-center justify-center">
<QRCodeSVG value={params.verification_uri_complete} size={250} />
<div className="flex w-100 items-center text-center before:mr-1 before:flex-1 before:border-b-1 before:content-[''] after:ml-1 after:flex-1 after:border-b-1 after:content-['']">
or
</div>
<a className="text-3xl" href={params.verification_uri_complete} target="_blank" rel="noreferrer">
Open sign in page
</a>
</div>
)}
</div>
) : (
<div className="flex h-dvh w-dvw">
{selectedAirport && selectedRunway && selectedTerminal ? (
<Sidebar
airport={selectedAirport}
runway={selectedRunway}
terminal={selectedTerminal}
transitions={transitions}
transition={selectedTransition}
chart={selectedChart}
setTransition={setSelectedTransition}
setChart={setSelectedChart}
backAction={() => {
setSelectedTerminal(undefined);
setSelectedChart(undefined);
setTransitions([]);
setSelectedTransition(undefined);
}}
/>
) : (
<ProcedureSelect
selectedAirport={selectedAirport}
selectedRunway={selectedRunway}
selectedTerminal={selectedTerminal}
setSelectedAirport={setSelectedAirport}
setSelectedRunway={setSelectedRunway}
setSelectedTerminal={setSelectedTerminal}
handleSelection={(selectedTransitions) => {
let _transitions = selectedTransitions
.map((transition) => ({
name: transition,
data: parser.parse(selectedRunway!, transition),
}))
.filter(
(transition) =>
!transition.name.startsWith('RW') || transition.name === `RW${selectedRunway?.Ident}`
);
if (_transitions.length > 1)
_transitions = _transitions.filter((transition) => transition.name !== 'ALL');
setTransitions(_transitions);
setSelectedTransition(_transitions[0]);
setSelectedChart(undefined);
}}
/>
)}
<Map
airport={selectedAirport}
chart={selectedChart}
procedures={selectedTransition ? [selectedTransition] : []}
/>
</div>
)}
</>
);
}
export default App;
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import type { FC } from 'react';
interface LoaderProps {
size?: 0.5 | 1 | 2 | 3;
}
export const Loader: FC<LoaderProps> = ({ size = 2 }) => {
const variants = {
0.5: 'size-6 border-1 after:top-1 after:left-0.5 after:size-1.5 after:border-1',
1: 'size-12 border-2 after:top-2 after:left-1 after:size-3 after:border-2',
2: 'size-24 border-4 after:top-3 after:left-2 after:size-6 after:border-4',
3: 'size-36 border-6 after:top-4 after:left-3 after:size-9 after:border-6',
};
return (
<div className="flex justify-center">
<span
className={`relative inline-block ${variants[size]} animate-spin rounded-[50%] border-red-500 after:absolute after:rounded-[50%] after:border-black after:content-['']`}
></span>
</div>
);
};
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import { default as L } from 'leaflet';
import 'leaflet-svg-shape-markers';
import { createRef, Fragment, useEffect, type FC } from 'react';
import { GeoJSON, ImageOverlay, MapContainer, TileLayer } from 'react-leaflet';
interface MapProps {
airport: Airport | undefined;
chart: Chart | undefined;
procedures: Procedure[];
}
export const Map: FC<MapProps> = ({ airport, chart, procedures }) => {
const mapRef = createRef<L.Map>();
const imageRef = createRef<L.ImageOverlay>();
useEffect(() => {
if (airport) mapRef.current?.flyTo([airport?.Latitude, airport?.Longitude], 10, { animate: false });
}, [airport]);
return (
<MapContainer
center={[0, 0]}
zoom={5}
zoomSnap={0}
className="h-full w-full"
ref={(_mapRef) => {
_mapRef?.attributionControl.setPosition('topright');
_mapRef?.zoomControl.setPosition('topright');
mapRef.current = _mapRef;
}}
>
<TileLayer
attribution='&copy; <a href="https://www.openstreetmap.org/copyright">OpenStreetMap</a> contributors'
url="https://{s}.tile.openstreetmap.org/{z}/{x}/{y}.png"
/>
{chart && chart.bounds && (
<ImageOverlay
url={chart.data}
bounds={chart.bounds}
opacity={0.75}
ref={(_imageRef) => {
if (_imageRef) {
mapRef.current?.fitBounds(_imageRef.getBounds(), {
padding: [-50, -50],
});
}
imageRef.current = _imageRef;
}}
/>
)}
{procedures.map((procedure) => (
<Fragment key={procedure.name}>
<GeoJSON
key={`${procedure.name}-lines`}
data={procedure.data}
style={({ properties }) => ({
color: properties.isMAP ? '#00ffff' : '#ff00ff',
stroke: true,
weight: properties.isMAP ? 2.5 : 5,
opacity: 1,
dashArray: properties.isManual ? '20, 20' : undefined,
})}
filter={(feature) => feature.geometry.type !== 'Point'}
/>
<GeoJSON
key={`${procedure.name}-points`}
data={procedure.data}
style={{
color: 'black',
fill: true,
fillColor: 'transparent',
stroke: true,
weight: 3,
}}
pointToLayer={({ properties }, latlng) => {
if (properties.isIntersection) return L.circleMarker(latlng, { radius: 6 });
else if (properties.IsMAP)
return L.shapeMarker(latlng, {
shape: 'square',
radius: 6,
});
else if (properties.IsFAF)
return L.shapeMarker(latlng, {
shape: 'diamond',
radius: 6,
});
else if (properties.isFlyOver)
return L.shapeMarker(latlng, {
shape: 'triangle',
radius: 6,
});
return L.shapeMarker(latlng, {
shape: 'star-4',
radius: 10,
rotation: 45,
});
}}
onEachFeature={({ geometry, properties }, layer) => {
if (geometry.type === 'Point') {
layer.bindPopup(
`${properties.name}<br>
${properties.altitude} ft<br>
${properties.speed} kts<br>
CNSTR:
${properties.altitudeConstraint ?? ''}
${properties.speedConstraint ?? ''}<br>`
);
}
}}
filter={(feature) => feature.geometry.type === 'Point'}
/>
</Fragment>
))}
</MapContainer>
);
};
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import { createRef, useMemo, useState, type Dispatch, type FC, type SetStateAction } from 'react';
import Parser from '../parser/parser';
import { Loader } from './Loader';
const parser = await Parser.instance();
interface ProcedureSelectProps {
selectedAirport: Airport | undefined;
selectedRunway: Runway | undefined;
selectedTerminal: Terminal | undefined;
setSelectedAirport: Dispatch<SetStateAction<Airport | undefined>>;
setSelectedRunway: Dispatch<SetStateAction<Runway | undefined>>;
setSelectedTerminal: Dispatch<SetStateAction<Terminal | undefined>>;
handleSelection: (transitions: string[]) => void;
}
export const ProcedureSelect: FC<ProcedureSelectProps> = ({
selectedAirport,
selectedRunway,
selectedTerminal,
setSelectedAirport,
setSelectedRunway,
setSelectedTerminal,
handleSelection,
}) => {
const inputRef = createRef<HTMLInputElement>();
const [error, setError] = useState<string>();
const [inFlight, setInFlight] = useState<number>();
const runways = useMemo(
() => parser.runways.filter(({ AirportID }) => AirportID === selectedAirport?.ID),
[selectedAirport]
);
const terminals = useMemo(() => {
const _terminals = parser.terminals.filter(
({ AirportID, RwyID }) => AirportID === selectedAirport?.ID && (!RwyID || RwyID === selectedRunway?.ID)
);
return {
star: _terminals.filter((terminal) => terminal.Proc === 1),
sid: _terminals.filter((terminal) => terminal.Proc === 2),
iap: _terminals.filter((terminal) => terminal.Proc === 3),
};
}, [selectedAirport, selectedRunway]);
return (
<div className="flex h-full w-[300px] shrink-0 flex-col overflow-hidden">
{selectedAirport && (
<button
className="sticky top-0 m-2 cursor-pointer rounded border border-red-500 bg-red-500 px-2 py-1 font-semibold text-stone-50 focus:outline-2 focus:outline-black focus-visible:outline-2 focus-visible:outline-black"
onClick={() => {
setError(undefined);
setInFlight(undefined);
if (selectedTerminal) {
setSelectedTerminal(undefined);
} else if (selectedRunway) {
setSelectedRunway(undefined);
} else if (selectedAirport) {
setSelectedAirport(undefined);
}
}}
>
Go back
</button>
)}
<div className="flex h-[calc(100%-50px)] flex-col gap-2 overflow-y-auto px-2 pb-2">
{!selectedAirport && (
<div className="flex w-full flex-col gap-2">
<h1 className="text-center text-3xl">Enter Airport ICAO</h1>
<input
ref={inputRef}
className="rounded border border-black px-2 py-1 focus:outline-2 focus-visible:outline-2"
onChange={(e) => {
if (e.target.value.length <= 4) e.target.value = e.target.value.toUpperCase();
else e.target.value = e.target.value.slice(0, 4);
}}
></input>
<button
className="w-full cursor-pointer rounded border border-gray-300 bg-gray-300 px-2 py-1 font-semibold focus:outline-2 focus-visible:outline-2"
onClick={() => {
const airport = parser.airports.find(({ ICAO }) => ICAO === inputRef.current?.value.toUpperCase());
if (!airport) {
setError('Airport not found');
return;
}
setSelectedAirport(airport);
setError(undefined);
}}
>
Select Airport
</button>
{error && <span className="text-center text-red-700">{error}</span>}
</div>
)}
{selectedAirport && !selectedRunway && (
<div className="flex w-full flex-col gap-2">
<h1 className="text-center text-3xl">Select Runway</h1>
{runways.map((runway) => (
<button
key={runway.ID}
className="w-full cursor-pointer rounded border border-gray-300 bg-gray-300 px-2 py-1 font-semibold focus:outline-2 focus-visible:outline-2"
onClick={() => setSelectedRunway(runway)}
>
Runway {runway.Ident}
</button>
))}
</div>
)}
{selectedAirport && selectedRunway && !selectedTerminal && (
<div className="flex w-full flex-col gap-2">
<h1 className="text-center text-3xl">Select Procedure</h1>
<div className="flex flex-col gap-2">
<div className="sticky top-0 -mx-2 bg-gray-500 px-2 text-lg font-semibold text-white">Arrivals</div>
{terminals.star.map((terminal) => (
<button
key={terminal.ID}
className="cursor-pointer rounded border border-gray-300 bg-gray-300 px-2 py-1 font-semibold focus:outline-2 focus-visible:outline-2 disabled:bg-gray-100"
onClick={() => {
setInFlight(terminal.ID);
parser.loadTerminal(terminal.ID).then(() => {
setSelectedTerminal(terminal);
const transitions = new Set(parser.procedures.map((proc) => proc.Transition));
handleSelection(Array.from(transitions));
setInFlight(undefined);
});
}}
disabled={!!inFlight}
>
<div className="flex justify-between">
{terminal.FullName}
{inFlight === terminal.ID && <Loader size={0.5} />}
</div>
</button>
))}
</div>
<div className="flex flex-col gap-2">
<div className="sticky top-0 -mx-2 bg-gray-500 px-2 text-lg font-semibold text-white">Departures</div>
{terminals.sid.map((terminal) => (
<button
key={terminal.ID}
className="cursor-pointer rounded border border-gray-300 bg-gray-300 px-2 py-1 font-semibold focus:outline-2 focus-visible:outline-2 disabled:bg-gray-100"
onClick={() => {
parser.loadTerminal(terminal.ID).then(() => {
setSelectedTerminal(terminal);
const transitions = new Set(parser.procedures.map((proc) => proc.Transition));
handleSelection(Array.from(transitions));
});
}}
disabled={!!inFlight}
>
<div className="flex justify-between">
{terminal.FullName}
{inFlight === terminal.ID && <Loader size={0.5} />}
</div>
</button>
))}
</div>
<div className="flex flex-col gap-2">
<div className="sticky top-0 -mx-2 bg-gray-500 px-2 text-lg font-semibold text-white">Approaches</div>
{terminals.iap.map((terminal) => (
<button
key={terminal.ID}
className="cursor-pointer rounded border border-gray-300 bg-gray-300 px-2 py-1 font-semibold focus:outline-2 focus-visible:outline-2 disabled:bg-gray-100"
onClick={() => {
parser.loadTerminal(terminal.ID).then(() => {
setSelectedTerminal(terminal);
const transitions = new Set(parser.procedures.map((proc) => proc.Transition));
handleSelection(Array.from(transitions));
});
}}
disabled={!!inFlight}
>
<div className="flex justify-between">
{terminal.FullName}
{inFlight === terminal.ID && <Loader size={0.5} />}
</div>
</button>
))}
</div>
</div>
)}
</div>
</div>
);
};
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import BrowserImageManipulation from 'browser-image-manipulation';
import L from 'leaflet';
import type { Chart as NGChart } from 'navigraph/charts';
import { useCallback, useEffect, useState, type Dispatch, type FC, type SetStateAction } from 'react';
import { charts } from '../lib/navigraph';
import { Loader } from './Loader';
interface SidebarProps {
airport: Airport;
runway: Runway;
terminal: Terminal;
transitions: Procedure[];
transition: Procedure | undefined;
chart: Chart | undefined;
setTransition: Dispatch<SetStateAction<SidebarProps['transition']>>;
setChart: Dispatch<SetStateAction<SidebarProps['chart']>>;
backAction: () => void;
}
export const Sidebar: FC<SidebarProps> = ({
airport,
runway,
terminal,
transitions,
transition,
chart,
setTransition,
setChart,
backAction,
}) => {
const [inFlight, setInFlight] = useState(false);
const [chartIndex, setChartIndex] = useState<{
sid: NGChart[];
star: NGChart[];
iap: NGChart[];
}>({ star: [], sid: [], iap: [] });
useEffect(() => {
setInFlight(true);
(async () => {
const _chartIndex = await charts.getChartsIndex({ icao: airport.ICAO, version: 'STD' });
const newChartIndex = {
star:
_chartIndex?.filter(
(_chart) =>
_chart.category === 'ARR' && (_chart.runways.length === 0 || _chart.runways.includes(runway.Ident))
) ?? [],
sid:
_chartIndex?.filter(
(_chart) =>
_chart.category === 'DEP' && (_chart.runways.length === 0 || _chart.runways.includes(runway.Ident))
) ?? [],
iap:
_chartIndex?.filter(
(_chart) =>
_chart.category === 'APP' && (_chart.runways.length === 0 || _chart.runways.includes(runway.Ident))
) ?? [],
};
_chartIndex?.filter((_chart) => ['ARR', 'DEP', 'APP'].includes(_chart.category));
setChartIndex(newChartIndex);
setInFlight(false);
})();
}, [airport.ICAO]);
useEffect(() => {
if (terminal) {
const star = chartIndex.star.find((_chart) => _chart.procedures.includes(terminal.FullName));
const sid = chartIndex.sid.find((_chart) => _chart.procedures.includes(terminal.FullName));
const iap = chartIndex.iap.find((_chart) => _chart.procedures.includes(terminal.FullName));
if (star) findChart(star);
if (sid) findChart(sid);
if (iap) findChart(iap);
}
}, [terminal, chartIndex]);
const findChart = useCallback(
async (_chart: NGChart) => {
if (chart?.index_number === _chart.index_number) return;
if (!_chart.bounding_boxes) return;
const planView = _chart.bounding_boxes.planview;
const chartImage = await charts.getChartImage({ chart: _chart, theme: 'light' });
if (!chartImage) return;
// Crop
const dataURL = await new BrowserImageManipulation()
.loadBlob(chartImage)
.crop(
planView.pixels.x2 - planView.pixels.x1,
planView.pixels.y1 - planView.pixels.y2,
planView.pixels.x1,
planView.pixels.y2
)
.saveAsImage();
const bounds = new L.LatLngBounds(
[planView.latlng.lat1, planView.latlng.lng1],
[planView.latlng.lat2, planView.latlng.lng2]
);
setChart({ data: dataURL, index_number: _chart.index_number, bounds });
},
[chart]
);
return (
<div className="flex h-full w-[300px] shrink-0 flex-col overflow-hidden">
<button
className="sticky top-0 m-2 cursor-pointer rounded border border-red-500 bg-red-500 px-2 py-1 font-semibold text-stone-50 focus:outline-2 focus:outline-black focus-visible:outline-2 focus-visible:outline-black"
onClick={backAction}
>
Go back
</button>
<div className="flex h-[calc(100%-50px)] flex-col gap-2 overflow-y-auto px-2 pb-2">
<div className="flex flex-col gap-2">
<div className="sticky top-0 -mx-2 bg-gray-500 px-2 text-lg font-semibold text-white">
Transitions for <span className="font-bold">{terminal.FullName}</span>
</div>
{transitions.map((_procedure) => (
<button
key={_procedure.name}
className={`cursor-pointer rounded border border-gray-300 bg-gray-300 px-2 py-1 font-semibold focus:outline-2 focus:outline-black focus-visible:outline-2 focus-visible:outline-black ${_procedure.name === transition?.name ? 'outline-2' : ''}`}
onClick={() => {
if (_procedure.name === transition?.name) return;
setTransition(_procedure);
}}
>
{_procedure.name ? _procedure.name : 'NONE'}
</button>
))}
</div>
<div className="flex flex-col gap-2">
<div className="sticky top-0 z-10 -mx-2 bg-gray-500 px-2 text-lg font-semibold text-white">Charts</div>
{inFlight && <Loader size={3} />}
<div className="flex flex-col gap-2">
<div className="sticky top-7 -mx-2 -mt-2 bg-gray-500 px-2 text-lg font-semibold text-white">Arrivals</div>
{chartIndex.star
.filter((_chart) => _chart.is_georeferenced)
.map((_chart) => (
<button
key={_chart.index_number}
className={`cursor-pointer rounded border border-gray-300 bg-gray-300 px-2 py-1 text-left font-semibold focus:outline-2 focus:outline-black focus-visible:outline-2 focus-visible:outline-black ${chart?.index_number === _chart.index_number ? 'outline-2' : ''}`}
onClick={() => findChart(_chart)}
>
<span className="font-bold">{_chart.index_number}</span>
<br />
{_chart.name}
</button>
))}
</div>
<div className="flex flex-col gap-2">
<div className="sticky top-7 -mx-2 bg-gray-500 px-2 text-lg font-semibold text-white">Departures</div>
{chartIndex.sid
.filter((_chart) => _chart.is_georeferenced)
.map((_chart) => (
<button
key={_chart.index_number}
className={`cursor-pointer rounded border border-gray-300 bg-gray-300 px-2 py-1 text-left font-semibold focus:outline-2 focus:outline-black focus-visible:outline-2 focus-visible:outline-black ${chart?.index_number === _chart.index_number ? 'outline-2' : ''}`}
onClick={() => findChart(_chart)}
>
<span className="font-bold">{_chart.index_number}</span>
<br />
{_chart.name}
</button>
))}
</div>
<div className="flex flex-col gap-2">
<div className="sticky top-7 -mx-2 bg-gray-500 px-2 text-lg font-semibold text-white">Approaches</div>
{chartIndex.iap
.filter((_chart) => _chart.is_georeferenced)
.map((_chart) => (
<button
key={_chart.index_number}
className={`cursor-pointer rounded border border-gray-300 bg-gray-300 px-2 py-1 text-left font-semibold focus:outline-2 focus:outline-black focus-visible:outline-2 focus-visible:outline-black ${chart?.index_number === _chart.index_number ? 'outline-2' : ''}`}
onClick={() => findChart(_chart)}
>
<span className="font-bold">{_chart.index_number}</span>
<br />
{_chart.name}
</button>
))}
</div>
</div>
</div>
</div>
);
};
@@ -0,0 +1,19 @@
import { type User } from 'navigraph/auth';
import { createContext, useContext } from 'react';
import { auth } from '../../lib/navigraph';
interface NavigraphAuthContext {
initialized: boolean;
user: User | null;
signIn: typeof auth.signInWithDeviceFlow;
}
export const authContext = createContext<NavigraphAuthContext>({
initialized: false,
user: null,
signIn: () => Promise.reject('Not initialized'),
});
export const useNavigraphAuth = () => {
return useContext(authContext);
};
@@ -0,0 +1,37 @@
import type { User } from 'navigraph/auth';
import { useEffect, useState } from 'react';
import { auth } from '../../lib/navigraph';
import { authContext } from './NavigraphAuthContext';
// Provider hook that creates auth object and handles state
function useProvideAuth() {
const [user, setUser] = useState<User | null>(null);
const [initialized, setinitialized] = useState(false);
// Subscribe to user on mount
// Because this sets state in the callback it will cause any
// component that utilizes this hook to re-render with the latest auth object.
useEffect(() => {
const unsubscribe = auth.onAuthStateChanged((u) => {
if (!initialized) setinitialized(true);
setUser(u);
});
// Cleanup subscription on unmount
return () => unsubscribe();
// eslint-disable-next-line react-hooks/exhaustive-deps
}, []);
return {
user,
initialized,
signIn: auth.signInWithDeviceFlow,
};
}
// Provider component that wraps your app and makes auth object
// available to any child component that calls useAuth().
export function NavigraphAuthProvider({ children }: { children: React.ReactNode }) {
const _auth = useProvideAuth();
return <authContext.Provider value={_auth}>{children}</authContext.Provider>;
}
+21
View File
@@ -0,0 +1,21 @@
import { initializeApp, Scope, type NavigraphApp } from 'navigraph/app';
import { getAuth } from 'navigraph/auth';
import { getChartsAPI } from 'navigraph/charts';
const config: NavigraphApp = {
clientId: import.meta.env.VITE_NG_CLIENT_ID,
clientSecret: import.meta.env.VITE_NG_CLIENT_SECRET,
scopes: [Scope.CHARTS],
};
initializeApp(config);
export const auth = getAuth({
storage: {
// Optional
getItem: (key) => localStorage.getItem('NG' + key),
setItem: (key, value) => localStorage.setItem('NG' + key, value),
},
});
export const charts = getChartsAPI();
+14
View File
@@ -0,0 +1,14 @@
import { StrictMode } from 'react';
import { createRoot } from 'react-dom/client';
import App from './App.tsx';
import 'leaflet/dist/leaflet.css';
import { NavigraphAuthProvider } from './contexts/NavigraphAuth/NavigraphAuthProvider.tsx';
createRoot(document.getElementById('root')!).render(
<StrictMode>
<NavigraphAuthProvider>
<App />
</NavigraphAuthProvider>
</StrictMode>
);
+318
View File
@@ -0,0 +1,318 @@
import geojson from 'geojson';
import getGreatCircleBearing from 'geolib/es/getGreatCircleBearing';
import { TerminatorsAF } from './terminators/AF';
import { TerminatorsCA } from './terminators/CA';
import { TerminatorsCD } from './terminators/CD';
import { TerminatorsCF } from './terminators/CF';
import { TerminatorsCI } from './terminators/CI';
import { TerminatorsCR } from './terminators/CR';
import { TerminatorsDF } from './terminators/DF';
import { TerminatorsFA } from './terminators/FA';
import { TerminatorsFC } from './terminators/FC';
import { TerminatorsFD } from './terminators/FD';
import { TerminatorsFM } from './terminators/FM';
import { TerminatorsHA } from './terminators/HA';
import { TerminatorsHF } from './terminators/HF';
import { TerminatorsHM } from './terminators/HM';
import { TerminatorsIF } from './terminators/IF';
import { TerminatorsPI } from './terminators/PI';
import { TerminatorsRF } from './terminators/RF';
import { TerminatorsTF } from './terminators/TF';
import { TerminatorsVA } from './terminators/VA';
import { TerminatorsVD } from './terminators/VD';
import { TerminatorsVI } from './terminators/VI';
import { TerminatorsVM } from './terminators/VM';
import { TerminatorsVR } from './terminators/VR';
import './utils/extensions';
/*
Runway IDs for LIED
26156 - 34L
26157 - 34R
*/
class Parser {
private static _instance: Parser;
private _airports: Airport[];
private _waypoints: Waypoint[];
private _runways: Runway[];
private _terminals: Terminal[];
private _procedures: TerminalEntry[] = [];
public static AC_SPEED = 250;
public static AC_BANK = 30;
public static AC_VS = 1400;
private constructor(airports: Airport[], waypoints: Waypoint[], runways: Runway[], terminals: Terminal[]) {
this._airports = airports;
this._waypoints = waypoints;
this._runways = runways;
this._terminals = terminals;
}
public static instance = async () => {
if (!Parser._instance) {
const airports = await (await fetch('NavData/Airports.json')).json();
const waypoints = await (await fetch('NavData/Waypoints.json')).json();
const runways = await (await fetch('NavData/Runways.json')).json();
const terminals = await (await fetch('NavData/Terminals.json')).json();
Parser._instance = new Parser(airports, waypoints, runways, terminals);
}
return Parser._instance;
};
public get airports() {
return this._airports;
}
public get terminals() {
return this._terminals;
}
public get waypoints() {
return this._waypoints;
}
public get runways() {
return this._runways;
}
public get procedures() {
return this._procedures;
}
public loadTerminal = async (terminalID: number) => {
this._procedures = (await (
await fetch(`NavData/ProcedureLegs/TermID_${terminalID}.json`)
).json()) as TerminalEntry[];
};
public parse = (runway: Runway, transition: string) => {
// Private functions
/**
* @param line Line segments
*/
const updateLastCourse = (line: LineSegment[]) => {
lastCourse = getGreatCircleBearing(
{
latitude: line.at(-2)![1],
longitude: line.at(-2)![0],
},
{
latitude: line.at(-1)![1],
longitude: line.at(-1)![0],
}
);
};
/**
* @param fix New fix
* @param line New line
* @param options Options for line rendering
*/
const update = (fix?: NavFix, line?: LineSegment[], options?: Record<string, unknown>) => {
if (fix) navFixes.push(fix);
if (line) {
lineSegments.push({ line, ...options });
updateLastCourse(line);
}
};
// Output variables
const navFixes: NavFix[] = [];
const lineSegments: { line: LineSegment[]; [x: string]: unknown }[] = [];
// Initials
navFixes.push({
latitude: runway.Latitude,
longitude: runway.Longitude,
altitude: runway.Elevation,
speed: 0,
name: runway.Ident,
});
let lastCourse = runway.TrueHeading;
const legOptions = { isMAP: false };
const procedure = this._procedures.filter(
({ Transition }) => !Transition || Transition === transition || Transition === 'ALL'
);
// Main
for (let index = 0; index < procedure.length; index++) {
console.log('Processing leg with ID', procedure[index].ID);
const leg = procedure[index];
leg.Alt = leg.IsMAP ? String(runway.Elevation + 200).padStart(5, '0') : leg.Alt;
const previousFix = navFixes.at(-1)!;
legOptions.isMAP ||= previousFix.IsMAP ?? false;
const waypoint = this.waypoints.find(({ ID }) => ID === leg.WptID);
switch (leg.TrackCode) {
case 'AF': {
const [fixToAdd, lineToAdd] = TerminatorsAF(leg as AFTerminalEntry, previousFix, waypoint);
update(fixToAdd, lineToAdd, legOptions);
break;
}
case 'CA': {
const [fixToAdd, lineToAdd] = TerminatorsCA(leg as CATerminalEntry, previousFix, lastCourse);
update(fixToAdd, lineToAdd, legOptions);
break;
}
case 'CD': {
const [fixToAdd, lineToAdd] = TerminatorsCD(leg as CDTerminalEntry, previousFix, lastCourse);
update(fixToAdd, lineToAdd, legOptions);
break;
}
case 'CF': {
const [fixToAdd, lineToAdd] = TerminatorsCF(
leg as CFTerminalEntry,
{ ...previousFix }, // COPY
lastCourse,
waypoint
);
update(fixToAdd, lineToAdd, legOptions);
break;
}
case 'CI': {
const [fixToAdd, lineToAdd] = TerminatorsCI(
leg as CITerminalEntry,
procedure[index + 1],
{ ...previousFix }, // COPY
lastCourse
);
update(fixToAdd, lineToAdd, legOptions);
break;
}
case 'CR': {
const [fixToAdd, lineToAdd] = TerminatorsCR(leg as CRTerminalEntry, previousFix, lastCourse);
update(fixToAdd, lineToAdd, legOptions);
break;
}
case 'DF': {
const [fixToAdd, lineToAdd] = TerminatorsDF(leg as DFTerminalEntry, previousFix, lastCourse, waypoint);
update(fixToAdd, lineToAdd, legOptions);
break;
}
case 'FA': {
const [fixToAdd, lineToAdd] = TerminatorsFA(leg as FATerminalEntry, previousFix, lastCourse);
update(fixToAdd, lineToAdd, legOptions);
break;
}
case 'FC': {
const [fixToAdd, lineToAdd] = TerminatorsFC(leg as FCTerminalEntry, previousFix, lastCourse);
update(fixToAdd, lineToAdd, legOptions);
break;
}
case 'FD': {
const [fixToAdd, lineToAdd] = TerminatorsFD(leg as FDTerminalEntry, previousFix, lastCourse);
update(fixToAdd, lineToAdd, legOptions);
break;
}
case 'FM': {
const [fixToAdd, lineToAdd] = TerminatorsFM(leg as FMTerminalEntry, previousFix, lastCourse);
update(fixToAdd, lineToAdd, { isManual: true, ...legOptions });
// Make overfly
navFixes.at(-1)!.isFlyOver = true;
break;
}
case 'HA': {
const [fixToAdd, lineToAdd] = TerminatorsHA(leg as HATerminalEntry, previousFix);
update(fixToAdd, lineToAdd, { ...legOptions });
break;
}
case 'HF': {
const [fixToAdd, lineToAdd] = TerminatorsHF(leg as HFTerminalEntry, previousFix);
update(fixToAdd, lineToAdd, { ...legOptions });
break;
}
case 'HM': {
const [fixToAdd, lineToAdd] = TerminatorsHM(leg as HMTerminalEntry, previousFix);
update(fixToAdd, lineToAdd, { ...legOptions });
break;
}
case 'IF': {
const fixToAdd = TerminatorsIF(leg as RFTerminalEntry, waypoint);
// Only Runway, replace
if (navFixes.length <= 1) {
navFixes.push(fixToAdd);
lastCourse = -1;
}
break;
}
case 'PI': {
const nextLeg = procedure[index + 1] as CFTerminalEntry;
const _waypoint = this.waypoints.find(({ ID }) => ID === nextLeg.WptID);
const [fixToAdd, lineToAdd] = TerminatorsPI(leg as PITerminalEntry, nextLeg, previousFix, [
waypoint,
_waypoint,
]);
update(fixToAdd, lineToAdd, { ...legOptions });
break;
}
case 'RF': {
const [fixToAdd, lineToAdd] = TerminatorsRF(leg as RFTerminalEntry, previousFix, lastCourse, waypoint);
if (fixToAdd) {
navFixes.push(fixToAdd);
lastCourse = (leg as RFTerminalEntry).Course?.toTrue(fixToAdd);
}
if (lineToAdd) {
lineSegments.push({ line: lineToAdd, ...legOptions });
}
break;
}
case 'TF': {
const [fixToAdd, lineToAdd] = TerminatorsTF(
leg as TFTerminalEntry,
{ ...previousFix }, // COPY
lastCourse,
waypoint
);
update(fixToAdd, lineToAdd, legOptions);
break;
}
case 'VA': {
const [fixToAdd, lineToAdd] = TerminatorsVA(leg as VATerminalEntry, previousFix, lastCourse);
update(fixToAdd, lineToAdd, legOptions);
break;
}
case 'VD': {
const [fixToAdd, lineToAdd] = TerminatorsVD(leg as VDTerminalEntry, previousFix, lastCourse);
update(fixToAdd, lineToAdd, legOptions);
break;
}
case 'VI': {
const [fixToAdd, lineToAdd] = TerminatorsVI(
leg as VITerminalEntry,
procedure[index + 1],
{ ...previousFix }, // COPY
lastCourse
);
update(fixToAdd, lineToAdd, legOptions);
break;
}
case 'VM': {
const [fixToAdd, lineToAdd] = TerminatorsVM(leg as VMTerminalEntry, previousFix, lastCourse);
update(fixToAdd, lineToAdd, { isManual: true, ...legOptions });
// Make overfly
navFixes.at(-1)!.isFlyOver = true;
break;
}
case 'VR': {
const [fixToAdd, lineToAdd] = TerminatorsVR(leg as VRTerminalEntry, previousFix, lastCourse);
update(fixToAdd, lineToAdd, legOptions);
break;
}
default:
console.error('Unknown TrackCode', leg.TrackCode);
break;
}
}
return geojson.parse([...navFixes, ...lineSegments], {
LineString: 'line',
Point: ['latitude', 'longitude'],
});
};
}
export default Parser;
@@ -0,0 +1,49 @@
import computeDestinationPoint from 'geolib/es/computeDestinationPoint';
/**
* @param crsIntoEndpoint Course into arc endpoint
* @param crsFromOrigin Course into arc origin point
* @param start Arc origin point
* @param center Arc center point
* @param radius Arc radius in nmi
* @param turnDir Turn direction
* @returns Line segments
*/
export const generateAFArc = (
crsIntoEndpoint: number,
crsFromOrigin: number,
start: NavFix,
center: NavFix,
radius: number,
turnDir: TurnDirection
) => {
const line: LineSegment[] = [[start.longitude, start.latitude]];
if (crsIntoEndpoint !== crsFromOrigin) {
// Turn Dir
if (!turnDir || turnDir === 'E') {
let prov = crsFromOrigin - crsIntoEndpoint;
prov = prov > 180 ? prov - 360 : prov <= -180 ? prov + 360 : prov;
turnDir = prov > 0 ? 'L' : 'R';
}
while (crsFromOrigin !== crsIntoEndpoint) {
if (turnDir === 'R') {
const delta = (crsIntoEndpoint - crsFromOrigin).normaliseDegrees();
crsFromOrigin += delta < 0.1 ? delta : 0.1;
crsFromOrigin = crsFromOrigin.normaliseDegrees();
} else {
const delta = (crsFromOrigin - crsIntoEndpoint).normaliseDegrees();
crsFromOrigin -= delta < 0.1 ? delta : 0.1;
crsFromOrigin = crsFromOrigin.normaliseDegrees();
}
if (crsFromOrigin === crsIntoEndpoint) break;
const arcFix = computeDestinationPoint(center, radius.toMetre(), crsFromOrigin);
line.push([arcFix.longitude, arcFix.latitude]);
}
}
return line;
};
@@ -0,0 +1,44 @@
import getGreatCircleBearing from 'geolib/es/getGreatCircleBearing';
import { generatePerformanceArc } from './generatePerformanceArc';
/**
* @param crsIntoEndpoint Course into arc endpoint
* @param crsFromOrigin Course from arc origin point
* @param start Arc origin point
* @param speed Speed within arc
* @param turnDir Turn direction
* @returns Line segments, arc endpoint, course into arc endpoint
*/
export const generateOverflyArc = (
crsIntoEndpoint: number,
crsFromOrigin: number,
start: NavFix,
speed: number,
turnDir?: TurnDirection,
force360?: boolean
): [LineSegment[], NavFix, number] => {
let line: LineSegment[] = [];
// Compute overfly arc
if (start.isFlyOver) {
line = generatePerformanceArc(crsIntoEndpoint, crsFromOrigin, start, speed, turnDir, force360);
}
// Compute procedural arc
else {
line.push([start.longitude, start.latitude]);
}
// Get arc endpoint and crs into arc endpoint
const arcEnd = { latitude: line.at(-1)![1], longitude: line.at(-1)![0] };
if (line.length > 1) {
crsFromOrigin = getGreatCircleBearing(
{
latitude: line.at(-2)![1],
longitude: line.at(-2)![0],
},
arcEnd
);
}
return [line, arcEnd, crsFromOrigin];
};
@@ -0,0 +1,98 @@
import computeDestinationPoint from 'geolib/es/computeDestinationPoint';
import Parser from '../parser';
import { computeTurnRate } from '../utils/computeTurnRate';
/**
* @param crsIntoEndpoint Course into arc endpoint
* @param crsFromOrigin Course from arc origin point
* @param start Arc origin point
* @param speed Speed within arc
* @param turnDir Turn direction
* @param force360 If true, force a 360° turn
* @returns Line segments
*/
export const generatePerformanceArc = (
crsIntoEndpoint: number,
crsFromOrigin: number,
start: NavFix,
speed: number,
turnDir?: TurnDirection,
force360?: boolean
) => {
const turnRate = computeTurnRate(speed, Parser.AC_BANK);
const originalCrsFromOrigin = crsFromOrigin;
const line: LineSegment[] = [[start.longitude, start.latitude]];
// Check if there even is an arc
if (force360 || !crsFromOrigin.equal(crsIntoEndpoint)) {
// Turn Dir
if (!turnDir || turnDir === 'E') {
let prov = crsFromOrigin - crsIntoEndpoint;
prov = prov > 180 ? prov - 360 : prov <= -180 ? prov + 360 : prov;
turnDir = prov > 0 ? 'L' : 'R';
}
// Generate arc
while (!crsFromOrigin.equal(crsIntoEndpoint)) {
let time = 0;
if (turnDir === 'R') {
const delta = (crsIntoEndpoint - crsFromOrigin).normaliseDegrees();
const increment = delta < 0.1 ? delta : 0.1;
crsFromOrigin = (crsFromOrigin + increment).normaliseDegrees();
time = increment / turnRate;
} else {
const delta = (crsFromOrigin - crsIntoEndpoint).normaliseDegrees();
const increment = delta < 0.1 ? delta : 0.1;
crsFromOrigin = (crsFromOrigin - increment).normaliseDegrees();
time = increment / turnRate;
}
const arcFix = computeDestinationPoint(
{
latitude: line.at(-1)![1],
longitude: line.at(-1)![0],
},
((speed / 3600) * time).toMetre(),
crsFromOrigin
);
line.push([arcFix.longitude, arcFix.latitude]);
}
// Second half
if (force360) {
const temp = crsIntoEndpoint;
crsIntoEndpoint = originalCrsFromOrigin;
crsFromOrigin = temp;
while (!crsFromOrigin.equal(crsIntoEndpoint)) {
let time = 0;
if (turnDir === 'R') {
const delta = (crsIntoEndpoint - crsFromOrigin).normaliseDegrees();
const increment = delta < 0.1 ? delta : 0.1;
crsFromOrigin = (crsFromOrigin + increment).normaliseDegrees();
time = increment / turnRate;
} else {
const delta = (crsFromOrigin - crsIntoEndpoint).normaliseDegrees();
const increment = delta < 0.1 ? delta : 0.1;
crsFromOrigin = (crsFromOrigin - increment).normaliseDegrees();
time = increment / turnRate;
}
const arcFix = computeDestinationPoint(
{
latitude: line.at(-1)![1],
longitude: line.at(-1)![0],
},
((speed / 3600) * time).toMetre(),
crsFromOrigin
);
line.push([arcFix.longitude, arcFix.latitude]);
}
}
}
return line;
};
@@ -0,0 +1,68 @@
import computeDestinationPoint from 'geolib/es/computeDestinationPoint';
import getPreciseDistance from 'geolib/es/getPreciseDistance';
/**
* @param crsIntoEndpoint Course into arc endpoint
* @param crsIntoOrigin Course into arc origin point
* @param start Arc origin point
* @param center Arc center point
* @param turnDir
* @returns Line segments
*/
export const generateRFArc = (
crsIntoEndpoint: number,
crsIntoOrigin: number,
start: NavFix,
center: NavFix,
turnDir: TurnDirection
) => {
const line: LineSegment[] = [[start.longitude, start.latitude]];
if (!crsIntoEndpoint.equal(crsIntoOrigin)) {
// Turn Dir
if (!turnDir || turnDir === 'E') {
let prov = crsIntoOrigin - crsIntoEndpoint;
prov = prov > 180 ? prov - 360 : prov <= -180 ? prov + 360 : prov;
turnDir = prov > 0 ? 'L' : 'R';
}
let crsOrthogonalOnOrigin;
let crsOrthogonalOnEndpoint;
if (turnDir === 'R') {
crsOrthogonalOnOrigin = (crsIntoOrigin + 90).normaliseDegrees();
crsOrthogonalOnEndpoint = (crsIntoEndpoint + 90).normaliseDegrees();
} else {
crsOrthogonalOnOrigin = (crsIntoOrigin - 90).normaliseDegrees();
crsOrthogonalOnEndpoint = (crsIntoEndpoint - 90).normaliseDegrees();
}
const arcRad = getPreciseDistance(center, start);
crsOrthogonalOnOrigin = crsOrthogonalOnOrigin.reciprocalCourse();
crsOrthogonalOnEndpoint = crsOrthogonalOnEndpoint.reciprocalCourse();
// Start turn immediately
if (turnDir === 'R') {
crsOrthogonalOnOrigin += crsOrthogonalOnOrigin < 1 ? crsOrthogonalOnOrigin : 1;
} else {
crsOrthogonalOnOrigin -= crsOrthogonalOnOrigin < 1 ? crsOrthogonalOnOrigin : 1;
}
while (!crsOrthogonalOnOrigin.equal(crsOrthogonalOnEndpoint)) {
if (turnDir === 'R') {
const delta = (crsOrthogonalOnEndpoint - crsOrthogonalOnOrigin).normaliseDegrees();
crsOrthogonalOnOrigin += delta < 0.1 ? delta : 0.1;
crsOrthogonalOnOrigin = crsOrthogonalOnOrigin.normaliseDegrees();
} else {
const delta = (crsOrthogonalOnOrigin - crsOrthogonalOnEndpoint).normaliseDegrees();
crsOrthogonalOnOrigin -= delta < 0.1 ? delta : 0.1;
crsOrthogonalOnOrigin = crsOrthogonalOnOrigin.normaliseDegrees();
}
const arcFix = computeDestinationPoint(center, arcRad, crsOrthogonalOnOrigin);
line.push([arcFix.longitude, arcFix.latitude]);
}
}
return line;
};
@@ -0,0 +1,105 @@
import computeDestinationPoint from 'geolib/es/computeDestinationPoint';
import getPreciseDistance from 'geolib/es/getPreciseDistance';
import { computeIntersection } from '../utils/computeIntersection';
/**
* @param crsIntoEndpoint Course into arc endpoint
* @param crsFromOrigin Course from arc origin point
* @param start Arc origin point
* @param end Leg endpoint
* @param turnDir Turn direction
* @returns Line segments forming arc from `start`to `end`
*/
export const generateTangentArc = (
crsIntoEndpoint: number,
crsFromOrigin: number,
start: NavFix,
end: NavFix,
turnDir?: TurnDirection
) => {
const line: LineSegment[] = [[start.longitude, start.latitude]];
// Check if there even is an arc
if (!crsFromOrigin.equal(crsIntoEndpoint)) {
// Course to the end of the arc
let crsFromStartToEnd;
if (!turnDir || turnDir === 'E') {
let prov = crsFromOrigin - crsIntoEndpoint;
prov = prov > 180 ? prov - 360 : prov <= -180 ? prov + 360 : prov;
turnDir = prov > 0 ? 'L' : 'R';
}
if (turnDir === 'R') {
const delta = (360 - crsFromOrigin + crsIntoEndpoint).normaliseDegrees();
crsFromStartToEnd = (crsFromOrigin + delta / 2).normaliseDegrees();
} else {
const delta = (crsFromOrigin + 360 - crsIntoEndpoint).normaliseDegrees();
crsFromStartToEnd = (crsFromOrigin - delta / 2).normaliseDegrees();
}
// Arc end
const intcArcOnCrsIntoEndpoint = computeIntersection(
start,
crsFromStartToEnd,
end,
crsIntoEndpoint.reciprocalCourse()
);
if (!intcArcOnCrsIntoEndpoint) return null;
let crsOrthogonalOnOrigin;
let crsOrthogonalOnEndpoint;
if (turnDir === 'R') {
crsOrthogonalOnOrigin = (crsFromOrigin + 90).normaliseDegrees();
crsOrthogonalOnEndpoint = (crsIntoEndpoint + 90).normaliseDegrees();
} else {
crsOrthogonalOnOrigin = (crsFromOrigin - 90).normaliseDegrees();
crsOrthogonalOnEndpoint = (crsIntoEndpoint - 90).normaliseDegrees();
}
// Generate arc
let arcRad = 0;
let arcCenter = computeIntersection(
start,
crsOrthogonalOnOrigin,
intcArcOnCrsIntoEndpoint,
crsOrthogonalOnEndpoint
);
if (Math.abs(crsOrthogonalOnEndpoint - crsOrthogonalOnOrigin) <= 0.1 && arcCenter)
arcRad = getPreciseDistance(arcCenter, start);
else {
arcRad = getPreciseDistance(start, end) / 2;
arcCenter = computeDestinationPoint(start, arcRad, crsOrthogonalOnOrigin);
}
crsOrthogonalOnOrigin = crsOrthogonalOnOrigin.reciprocalCourse();
crsOrthogonalOnEndpoint = crsOrthogonalOnEndpoint.reciprocalCourse();
// Start turn immediately
if (turnDir === 'R') {
crsOrthogonalOnOrigin += crsOrthogonalOnOrigin < 1 ? crsOrthogonalOnOrigin : 1;
} else {
crsOrthogonalOnOrigin -= crsOrthogonalOnOrigin < 1 ? crsOrthogonalOnOrigin : 1;
}
let lastDistance = getPreciseDistance(start, end);
while (!crsOrthogonalOnOrigin.equal(crsOrthogonalOnEndpoint)) {
if (turnDir === 'R') {
const delta = (crsOrthogonalOnEndpoint - crsOrthogonalOnOrigin).normaliseDegrees();
crsOrthogonalOnOrigin += delta < 0.1 ? delta : 0.1;
crsOrthogonalOnOrigin = crsOrthogonalOnOrigin.normaliseDegrees();
} else {
const delta = (crsOrthogonalOnOrigin - crsOrthogonalOnEndpoint).normaliseDegrees();
crsOrthogonalOnOrigin -= delta < 0.1 ? delta : 0.1;
crsOrthogonalOnOrigin = crsOrthogonalOnOrigin.normaliseDegrees();
}
const arcFix = computeDestinationPoint(arcCenter, arcRad, crsOrthogonalOnOrigin);
const newDistance = getPreciseDistance(arcFix, end);
if (lastDistance <= newDistance && lastDistance < 25) break;
lastDistance = newDistance;
line.push([arcFix.longitude, arcFix.latitude]);
}
}
return line;
};
@@ -0,0 +1,57 @@
import getGreatCircleBearing from 'geolib/es/getGreatCircleBearing';
import { generatePerformanceArc } from './generatePerformanceArc';
import { generateTangentArc } from './generateTangentArc';
/**
* @param crsIntoEndpoint Course into endpoint
* @param crsIntoIntercept Course into intercept point (only fo intercept type legs)
* @param crsFromOrigin Course from arc origin point
* @param start Waypoint where leg starts
* @param end Waypoint where leg ends
* @param speed Speed for performance arc
* @param turnDir Turn direction
* @returns Line segments from `start` to `end`
*/
export const handleTurnAtFix = (
crsIntoEndpoint: number,
crsIntoIntercept: number,
crsFromOrigin: number,
start: NavFix,
end: NavFix,
speed: number,
turnDir?: TurnDirection
) => {
const line: LineSegment[] = [];
// Overfly turn
if (start.isFlyOver) {
const arc1 = generateTangentArc(crsIntoEndpoint, crsFromOrigin, start, end, turnDir);
const arc2 = generatePerformanceArc(crsIntoIntercept, crsFromOrigin, start, speed, turnDir);
// Decide on arc
let arc;
if (arc1) {
const endCrs = getGreatCircleBearing(
{
latitude: arc1.at(-1)![1],
longitude: arc1.at(-1)![0],
},
end
);
if (endCrs <= crsIntoEndpoint + 1 && endCrs >= crsIntoEndpoint - 1) arc = arc1;
else arc = arc2;
} else {
arc = arc2;
}
line.push(...arc);
line.push([end.longitude, end.latitude]);
}
// Procedural turn
else {
line.push([start.longitude, start.latitude], [end.longitude, end.latitude]);
}
return line;
};
@@ -0,0 +1,33 @@
import getGreatCircleBearing from 'geolib/es/getGreatCircleBearing';
import { generateAFArc } from '../pathGenerators/generateAFArc';
import { computeSpeed } from '../utils/computeSpeed';
export const TerminatorsAF = (
leg: AFTerminalEntry,
previousFix: NavFix,
waypoint?: Waypoint
): [NavFix?, LineSegment[]?] => {
const navaid = {
latitude: leg.NavLat,
longitude: leg.NavLon,
};
const targetFix: NavFix = {
latitude: leg.WptLat,
longitude: leg.WptLon,
name: waypoint?.Ident ?? undefined,
isFlyOver: leg.IsFlyOver,
altitude: leg.Alt ? leg.Alt.parseAltitude() : previousFix.altitude,
speed: computeSpeed(leg, previousFix),
speedConstraint: leg.SpeedLimit,
altitudeConstraint: leg.Alt,
IsFAF: leg.IsFAF,
IsMAP: leg.IsMAP,
};
const arcEndCrs = getGreatCircleBearing(navaid, targetFix);
const line = generateAFArc(arcEndCrs, leg.Course.toTrue(navaid), previousFix, navaid, leg.NavDist, leg.TurnDir);
return [targetFix, line];
};
@@ -0,0 +1,40 @@
import computeDestinationPoint from 'geolib/es/computeDestinationPoint';
import Parser from '../parser';
import { generateOverflyArc } from '../pathGenerators/generateOverflyArc';
import { computeSpeed } from '../utils/computeSpeed';
export const TerminatorsCA = (
leg: CATerminalEntry,
previousFix: NavFix,
lastCourse: number
): [NavFix?, LineSegment[]?] => {
const speed = computeSpeed(leg, previousFix);
const crsIntoEndpoint = leg.Course.toTrue(previousFix);
// Compute overfly
const [line, arcEnd, _lastCourse] = generateOverflyArc(crsIntoEndpoint, lastCourse, previousFix, speed, leg.TurnDir);
lastCourse = _lastCourse;
// Compute intercept of crs from arc end and expected altitude
const targetFix: NavFix = {
...computeDestinationPoint(
arcEnd,
(
((leg.Alt.parseAltitude() - (previousFix.altitude ?? 0)) / Parser.AC_VS) *
((previousFix.speed ? previousFix.speed : Parser.AC_SPEED) / 60)
).toMetre(),
crsIntoEndpoint
),
name: leg.Alt,
isFlyOver: true,
altitude: leg.Alt ? leg.Alt.parseAltitude() : previousFix.altitude,
speed: speed,
speedConstraint: leg.SpeedLimit,
altitudeConstraint: leg.Alt,
IsFAF: leg.IsFAF,
IsMAP: leg.IsMAP,
};
line.push([targetFix.longitude, targetFix.latitude]);
return [targetFix, line];
};
@@ -0,0 +1,53 @@
import computeDestinationPoint from 'geolib/es/computeDestinationPoint';
import getGreatCircleBearing from 'geolib/es/getGreatCircleBearing';
import getPreciseDistance from 'geolib/es/getPreciseDistance';
import { generateOverflyArc } from '../pathGenerators/generateOverflyArc';
import { computeSpeed } from '../utils/computeSpeed';
// NOTE: Distance not adjusted for altitude in this demo
export const TerminatorsCD = (
leg: CDTerminalEntry,
previousFix: NavFix,
lastCourse: number
): [NavFix?, LineSegment[]?] => {
const navaid = {
latitude: leg.NavLat,
longitude: leg.NavLon,
};
const crsIntoEndpoint = leg.Course.toTrue(previousFix);
const speed = computeSpeed(leg, previousFix);
// Compute overfly
const [line, arcEnd, _lastCourse] = generateOverflyArc(crsIntoEndpoint, lastCourse, previousFix, speed, leg.TurnDir);
lastCourse = _lastCourse;
// Compute distance to fly from arc end
const crsToNavaid = getGreatCircleBearing(arcEnd, navaid);
const distToNavaid = getPreciseDistance(arcEnd, navaid);
let remainingDistance = leg.Distance.toMetre();
// Navaid behind us
if (Math.abs(crsToNavaid - lastCourse) > 90) {
remainingDistance -= distToNavaid;
}
// Navaid in front of us
else {
// Navaid will not be passed before distance is hit
if (distToNavaid > remainingDistance) remainingDistance = distToNavaid - remainingDistance;
}
// Compute intercept of crs from arc end and distance
const targetFix: NavFix = {
...computeDestinationPoint(arcEnd, remainingDistance, lastCourse),
name: leg.Distance.toString(),
isFlyOver: true,
altitude: leg.Alt ? leg.Alt.parseAltitude() : previousFix.altitude,
speed: speed,
speedConstraint: leg.SpeedLimit,
altitudeConstraint: leg.Alt,
IsFAF: leg.IsFAF,
IsMAP: leg.IsMAP,
};
line.push([targetFix.longitude, targetFix.latitude]);
return [targetFix, line];
};
+120
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@@ -0,0 +1,120 @@
import computeDestinationPoint from 'geolib/es/computeDestinationPoint';
import getGreatCircleBearing from 'geolib/es/getGreatCircleBearing';
import getPreciseDistance from 'geolib/es/getPreciseDistance';
import Parser from '../parser';
import { generateTangentArc } from '../pathGenerators/generateTangentArc';
import { computeSpeed } from '../utils/computeSpeed';
import { computeTurnRate } from '../utils/computeTurnRate';
export const TerminatorsCF = (
leg: CFTerminalEntry,
previousFix: NavFix,
lastCourse: number,
waypoint?: Waypoint
): [NavFix?, LineSegment[]?] => {
const speed = computeSpeed(leg, previousFix);
const crsIntoEndpoint = leg.Course.toTrue(previousFix);
const line: LineSegment[] = [];
const targetFix: NavFix = {
latitude: leg.WptLat,
longitude: leg.WptLon,
name: waypoint?.Ident ?? undefined,
isFlyOver: leg.IsFlyOver,
altitude: leg.Alt ? leg.Alt.parseAltitude() : previousFix.altitude,
speed: speed,
speedConstraint: leg.SpeedLimit,
altitudeConstraint: leg.Alt,
IsFAF: leg.IsFAF,
IsMAP: leg.IsMAP,
};
const crsToIntercept = leg.Course.toTrue(targetFix);
// Compute overfly arc
let arc1: LineSegment[] | null = null;
let arc2: LineSegment[] = [[previousFix.longitude, previousFix.latitude]];
if (previousFix.isFlyOver) {
arc1 = generateTangentArc(crsIntoEndpoint, lastCourse, previousFix, targetFix, leg.TurnDir);
} else {
arc1 = [[previousFix.longitude, previousFix.latitude]];
}
let arc;
if (arc1 && arc1.length > 1) {
const endCrs = getGreatCircleBearing(
{
latitude: arc1.at(-1)![1],
longitude: arc1.at(-1)![0],
},
targetFix
);
const endDist = getPreciseDistance(
{
latitude: arc1.at(-1)![1],
longitude: arc1.at(-1)![0],
},
targetFix
);
if (endDist <= 25 || (endCrs <= crsIntoEndpoint + 1 && endCrs >= crsIntoEndpoint - 1)) arc = arc1;
}
if (previousFix.isFlyOver && (!lastCourse.equal(crsIntoEndpoint) || !lastCourse.equal(crsToIntercept))) {
const turnRate = computeTurnRate(speed, Parser.AC_BANK);
let updatedCrsToIntercept = getGreatCircleBearing(previousFix, targetFix);
// Turn Dir
if (!leg.TurnDir || leg.TurnDir === 'E') {
let prov = lastCourse - crsIntoEndpoint;
prov = prov > 180 ? prov - 360 : prov <= -180 ? prov + 360 : prov;
leg.TurnDir = prov > 0 ? 'L' : 'R';
}
// Generate arc
let lastDistance = getPreciseDistance(previousFix, targetFix);
while (!updatedCrsToIntercept.equal(crsToIntercept)) {
let interceptAngle = 0;
if (leg.TurnDir === 'R') interceptAngle = Math.abs(lastCourse - crsToIntercept);
else interceptAngle = Math.abs(crsToIntercept - lastCourse);
let time = 0;
const increment = 0.1;
if (interceptAngle < 44.9 || interceptAngle >= 45.1) {
if (leg.TurnDir === 'R') {
lastCourse = (lastCourse + increment).normaliseDegrees();
time = increment / turnRate;
} else {
lastCourse = (lastCourse - increment).normaliseDegrees();
time = increment / turnRate;
}
} else time = increment / turnRate;
const arcFix = computeDestinationPoint(
{
latitude: arc2.at(-1)![1],
longitude: arc2.at(-1)![0],
},
((speed / 3600) * time).toMetre(),
lastCourse
);
arc2.push([arcFix.longitude, arcFix.latitude]);
// Update previousFix
previousFix.latitude = arcFix.latitude;
previousFix.longitude = arcFix.longitude;
updatedCrsToIntercept = getGreatCircleBearing(previousFix, targetFix);
const newDistance = getPreciseDistance(previousFix, targetFix);
if (lastDistance <= newDistance && lastDistance < 25) break;
lastDistance = newDistance;
}
}
if (!arc) arc = arc2;
line.push(...arc);
line.push([targetFix.longitude, targetFix.latitude]);
return [targetFix, line];
};
@@ -0,0 +1,78 @@
import computeDestinationPoint from 'geolib/es/computeDestinationPoint';
import getGreatCircleBearing from 'geolib/es/getGreatCircleBearing';
import Parser from '../parser';
import { computeIntersection } from '../utils/computeIntersection';
import { computeSpeed } from '../utils/computeSpeed';
import { computeTurnRate } from '../utils/computeTurnRate';
import { getCourseAndFixForIntercepts } from '../utils/getCourseAndFixForIntercepts';
export const TerminatorsCI = (
leg: CITerminalEntry,
nextLeg: TerminalEntry,
previousFix: NavFix,
lastCourse: number
): [NavFix?, LineSegment[]?] => {
const speed = computeSpeed(leg, previousFix);
const crsIntoEndpoint = leg.Course.toTrue(previousFix);
const [crsToIntercept, nextFix] = getCourseAndFixForIntercepts(nextLeg, previousFix);
const line: LineSegment[] = [[previousFix.longitude, previousFix.latitude]];
// Compute overfly arc
if (previousFix.isFlyOver && !lastCourse.equal(crsIntoEndpoint)) {
const turnRate = computeTurnRate(speed, Parser.AC_BANK);
const updatedCrsToIntercept = getGreatCircleBearing(previousFix, nextFix);
// Turn Dir
if (!leg.TurnDir || leg.TurnDir === 'E') {
let prov = lastCourse - crsIntoEndpoint;
prov = prov > 180 ? prov - 360 : prov <= -180 ? prov + 360 : prov;
leg.TurnDir = prov > 0 ? 'L' : 'R';
}
// Generate arc
while (!lastCourse.equal(crsIntoEndpoint) && !updatedCrsToIntercept.equal(crsToIntercept)) {
let time = 0;
if (leg.TurnDir === 'R') {
const delta = (crsIntoEndpoint - lastCourse).normaliseDegrees();
const increment = delta < 0.1 ? delta : 0.1;
lastCourse = (lastCourse + increment).normaliseDegrees();
time = increment / turnRate;
} else {
const delta = (lastCourse - crsIntoEndpoint).normaliseDegrees();
const increment = delta < 0.1 ? delta : 0.1;
lastCourse = (lastCourse - increment).normaliseDegrees();
time = increment / turnRate;
}
const arcFix = computeDestinationPoint(
{
latitude: line.at(-1)![1],
longitude: line.at(-1)![0],
},
((speed / 3600) * time).toMetre(),
lastCourse
);
line.push([arcFix.longitude, arcFix.latitude]);
// Update previousFix
previousFix.latitude = arcFix.latitude;
previousFix.longitude = arcFix.longitude;
}
}
const interceptFix: NavFix = {
...computeIntersection(previousFix, leg.Course.toTrue(nextFix), nextFix, crsToIntercept)!,
isFlyOver: leg.IsFlyOver,
altitude: leg.Alt ? leg.Alt.parseAltitude() : previousFix.altitude,
speed: speed,
speedConstraint: leg.SpeedLimit,
altitudeConstraint: leg.Alt,
IsFAF: leg.IsFAF,
IsMAP: leg.IsMAP,
};
line.push([interceptFix.longitude, interceptFix.latitude]);
return [interceptFix, line];
};
@@ -0,0 +1,37 @@
import { generateOverflyArc } from '../pathGenerators/generateOverflyArc';
import { computeIntersection } from '../utils/computeIntersection';
import { computeSpeed } from '../utils/computeSpeed';
export const TerminatorsCR = (
leg: CRTerminalEntry,
previousFix: NavFix,
lastCourse: number
): [NavFix?, LineSegment[]?] => {
const navaid = {
latitude: leg.NavLat,
longitude: leg.NavLon,
};
const crsFromEndpoint = leg.Course.toTrue(previousFix);
const crsIntoEndpoint = leg.NavBear.toTrue(navaid);
const speed = computeSpeed(leg, previousFix);
// Compute overfly
const [line, arcEnd, _lastCourse] = generateOverflyArc(crsFromEndpoint, lastCourse, previousFix, speed, leg.TurnDir);
lastCourse = _lastCourse;
// Compute intercept of crs from arc end and radial
const interceptFix: NavFix = {
...computeIntersection(arcEnd, crsFromEndpoint, navaid, crsIntoEndpoint)!,
isFlyOver: leg.IsFlyOver,
altitude: leg.Alt ? leg.Alt.parseAltitude() : previousFix.altitude,
speed: speed,
speedConstraint: leg.SpeedLimit,
altitudeConstraint: leg.Alt,
IsFAF: leg.IsFAF,
IsMAP: leg.IsMAP,
};
line.push([interceptFix.longitude, interceptFix.latitude]);
return [interceptFix, line];
};
+121
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@@ -0,0 +1,121 @@
import computeDestinationPoint from 'geolib/es/computeDestinationPoint';
import getGreatCircleBearing from 'geolib/es/getGreatCircleBearing';
import getPreciseDistance from 'geolib/es/getPreciseDistance';
import Parser from '../parser';
import { computeSpeed } from '../utils/computeSpeed';
import { computeTurnRate } from '../utils/computeTurnRate';
export const TerminatorsDF = (
leg: DFTerminalEntry,
previousFix: NavFix,
lastCourse: number,
waypoint?: Waypoint
): [NavFix?, LineSegment[]?] => {
const speed = computeSpeed(leg, previousFix);
const turnRate = computeTurnRate(speed, Parser.AC_BANK);
const originalCrsFromOrigin = lastCourse;
const line: LineSegment[] = [[previousFix.longitude, previousFix.latitude]];
const targetFix: NavFix = {
latitude: leg.WptLat,
longitude: leg.WptLon,
name: waypoint?.Ident ?? undefined,
isFlyOver: leg.IsFlyOver,
altitude: leg.Alt ? leg.Alt.parseAltitude() : previousFix.altitude,
speed: speed,
speedConstraint: leg.SpeedLimit,
altitudeConstraint: leg.Alt,
IsFAF: leg.IsFAF,
IsMAP: leg.IsMAP,
};
let crsIntoEndpoint = getGreatCircleBearing(previousFix, targetFix);
let force360 = getPreciseDistance(previousFix, targetFix) < 25;
// Check if there even is an arc
if (force360 || !lastCourse.equal(crsIntoEndpoint)) {
// Turn Dir
if (!leg.TurnDir || leg.TurnDir === 'E') {
let prov = lastCourse - crsIntoEndpoint;
prov = prov > 180 ? prov - 360 : prov <= -180 ? prov + 360 : prov;
leg.TurnDir = prov > 0 ? 'L' : 'R';
}
// Generate arc
while (!lastCourse.equal(crsIntoEndpoint)) {
let time = 0;
if (leg.TurnDir === 'R') {
const delta = (crsIntoEndpoint - lastCourse).normaliseDegrees();
const increment = delta < 0.1 ? delta : 0.1;
lastCourse = (lastCourse + increment).normaliseDegrees();
time = increment / turnRate;
} else {
const delta = (lastCourse - crsIntoEndpoint).normaliseDegrees();
const increment = delta < 0.1 ? delta : 0.1;
lastCourse = (lastCourse - increment).normaliseDegrees();
time = increment / turnRate;
}
const arcFix = computeDestinationPoint(
{
latitude: line.at(-1)![1],
longitude: line.at(-1)![0],
},
((speed / 3600) * time).toMetre(),
lastCourse
);
crsIntoEndpoint = getGreatCircleBearing(arcFix, targetFix);
line.push([arcFix.longitude, arcFix.latitude]);
// made a loop
if (line.length >= 3600) {
if (!force360) {
line.splice(1);
}
force360 = false;
break;
}
}
// Second half
if (force360) {
const temp = crsIntoEndpoint;
crsIntoEndpoint = originalCrsFromOrigin;
lastCourse = temp;
while (!lastCourse.equal(crsIntoEndpoint)) {
let time = 0;
if (leg.TurnDir === 'R') {
const delta = (crsIntoEndpoint - lastCourse).normaliseDegrees();
const increment = delta < 0.1 ? delta : 0.1;
lastCourse = (lastCourse + increment).normaliseDegrees();
time = increment / turnRate;
} else {
const delta = (lastCourse - crsIntoEndpoint).normaliseDegrees();
const increment = delta < 0.1 ? delta : 0.1;
lastCourse = (lastCourse - increment).normaliseDegrees();
time = increment / turnRate;
}
const arcFix = computeDestinationPoint(
{
latitude: line.at(-1)![1],
longitude: line.at(-1)![0],
},
((speed / 3600) * time).toMetre(),
lastCourse
);
crsIntoEndpoint = getGreatCircleBearing(arcFix, targetFix);
line.push([arcFix.longitude, arcFix.latitude]);
}
}
}
line.push([targetFix.longitude, targetFix.latitude]);
return [targetFix, line];
};
@@ -0,0 +1,44 @@
import computeDestinationPoint from 'geolib/es/computeDestinationPoint';
import Parser from '../parser';
import { generateOverflyArc } from '../pathGenerators/generateOverflyArc';
import { computeSpeed } from '../utils/computeSpeed';
export const TerminatorsFA = (
leg: FATerminalEntry,
previousFix: NavFix,
lastCourse: number
): [NavFix?, LineSegment[]?] => {
const refFix = {
latitude: leg.WptLat,
longitude: leg.WptLon,
};
const speed = computeSpeed(leg, previousFix);
const crsIntoEndpoint = leg.Course.toTrue(refFix);
// Compute overfly
const [line, arcEnd, _lastCourse] = generateOverflyArc(crsIntoEndpoint, lastCourse, previousFix, speed, leg.TurnDir);
lastCourse = _lastCourse;
// Compute intercept of crs from arc end and expected altitude
const targetFix: NavFix = {
...computeDestinationPoint(
arcEnd,
(
((leg.Alt.parseAltitude() - (previousFix.altitude ?? 0)) / Parser.AC_VS) *
((previousFix.speed ? previousFix.speed : Parser.AC_SPEED) / 60)
).toMetre(),
crsIntoEndpoint
),
name: leg.Alt,
isFlyOver: true,
altitude: leg.Alt ? leg.Alt.parseAltitude() : previousFix.altitude,
speed: speed,
speedConstraint: leg.SpeedLimit,
altitudeConstraint: leg.Alt,
IsFAF: leg.IsFAF,
IsMAP: leg.IsMAP,
};
line.push([targetFix.longitude, targetFix.latitude]);
return [targetFix, line];
};
@@ -0,0 +1,97 @@
import computeDestinationPoint from 'geolib/es/computeDestinationPoint';
import getGreatCircleBearing from 'geolib/es/getGreatCircleBearing';
import Parser from '../parser';
import { computeSpeed } from '../utils/computeSpeed';
import { computeTurnRate } from '../utils/computeTurnRate';
// NOTE: Distance not adjusted for altitude in this demo
export const TerminatorsFC = (
leg: FCTerminalEntry,
previousFix: NavFix,
lastCourse: number
): [NavFix?, LineSegment[]?] => {
const refFix = {
latitude: leg.WptLat,
longitude: leg.WptLon,
};
const speed = computeSpeed(leg, previousFix);
const turnRate = computeTurnRate(speed, Parser.AC_BANK);
const trackIntoEndpoint = leg.Course.toTrue(refFix);
const line: LineSegment[] = [[previousFix.longitude, previousFix.latitude]];
if (previousFix.isFlyOver) {
const crsIntoEndpoint = trackIntoEndpoint;
// Check if there even is an arc
if (!crsIntoEndpoint.equal(lastCourse)) {
// Turn Dir
if (!leg.TurnDir || leg.TurnDir === 'E') {
let prov = lastCourse - crsIntoEndpoint;
prov = prov > 180 ? prov - 360 : prov <= -180 ? prov + 360 : prov;
leg.TurnDir = prov > 0 ? 'L' : 'R';
}
// Generate arc
let condition = false;
do {
let time = 0;
if (leg.TurnDir === 'R') {
const delta = (crsIntoEndpoint - lastCourse).normaliseDegrees();
const increment = delta < 0.1 ? delta : 0.1;
lastCourse = (lastCourse + increment).normaliseDegrees();
time = increment / turnRate;
} else {
const delta = (lastCourse - crsIntoEndpoint).normaliseDegrees();
const increment = delta < 0.1 ? delta : 0.1;
lastCourse = (lastCourse - increment).normaliseDegrees();
time = increment / turnRate;
}
const arcFix = computeDestinationPoint(
{
latitude: line.at(-1)![1],
longitude: line.at(-1)![0],
},
((speed * time) / 3600).toMetre(),
lastCourse
);
line.push([arcFix.longitude, arcFix.latitude]);
if (leg.TurnDir === 'R') {
condition = lastCourse > trackIntoEndpoint;
} else {
condition = lastCourse < trackIntoEndpoint;
}
} while (condition);
}
}
const arcEnd = { latitude: line.at(-1)![1], longitude: line.at(-1)![0] };
if (line.length > 1) {
lastCourse = getGreatCircleBearing(
{
latitude: line.at(-2)![1],
longitude: line.at(-2)![0],
},
arcEnd
);
}
const targetFix: NavFix = {
...computeDestinationPoint(arcEnd, leg.Distance.toMetre(), leg.Course.toTrue(refFix)),
name: leg.Distance.toString(),
isFlyOver: true,
altitude: leg.Alt ? leg.Alt.parseAltitude() : previousFix.altitude,
speed: speed,
speedConstraint: leg.SpeedLimit,
altitudeConstraint: leg.Alt,
IsFAF: leg.IsFAF,
IsMAP: leg.IsMAP,
};
line.push([targetFix.longitude, targetFix.latitude]);
return [targetFix, line];
};
@@ -0,0 +1,57 @@
import computeDestinationPoint from 'geolib/es/computeDestinationPoint';
import getGreatCircleBearing from 'geolib/es/getGreatCircleBearing';
import getPreciseDistance from 'geolib/es/getPreciseDistance';
import { generateOverflyArc } from '../pathGenerators/generateOverflyArc';
import { computeSpeed } from '../utils/computeSpeed';
// NOTE: Distance not adjusted for altitude in this demo
export const TerminatorsFD = (
leg: FDTerminalEntry,
previousFix: NavFix,
lastCourse: number
): [NavFix?, LineSegment[]?] => {
const refFix = {
latitude: leg.WptLat,
longitude: leg.WptLon,
};
const navaid = {
latitude: leg.NavLat,
longitude: leg.NavLon,
};
const crsIntoEndpoint = leg.Course.toTrue(refFix);
const speed = computeSpeed(leg, previousFix);
// Compute overfly
const [line, arcEnd, _lastCourse] = generateOverflyArc(crsIntoEndpoint, lastCourse, previousFix, speed, leg.TurnDir);
lastCourse = _lastCourse;
// Compute distance to fly from arc end
const crsToNavaid = getGreatCircleBearing(arcEnd, navaid);
const distToNavaid = getPreciseDistance(arcEnd, navaid);
let remainingDistance = leg.Distance.toMetre();
// Navaid behind us
if (Math.abs(crsToNavaid - lastCourse) > 90) {
remainingDistance -= distToNavaid;
}
// Navaid in front of us
else {
// Navaid will not be passed before distance is hit
if (distToNavaid > remainingDistance) remainingDistance = distToNavaid - remainingDistance;
}
// Compute intercept of crs from arc end and distance
const targetFix: NavFix = {
...computeDestinationPoint(arcEnd, remainingDistance, lastCourse),
name: leg.Distance.toString(),
isFlyOver: true,
altitude: leg.Alt ? leg.Alt.parseAltitude() : previousFix.altitude,
speed: speed,
speedConstraint: leg.SpeedLimit,
altitudeConstraint: leg.Alt,
IsFAF: leg.IsFAF,
IsMAP: leg.IsMAP,
};
line.push([targetFix.longitude, targetFix.latitude]);
return [targetFix, line];
};
@@ -0,0 +1,25 @@
import computeDestinationPoint from 'geolib/es/computeDestinationPoint';
import { handleTurnAtFix } from '../pathGenerators/handleTurnAtFix';
import { computeSpeed } from '../utils/computeSpeed';
export const TerminatorsFM = (
leg: FMTerminalEntry,
previousFix: NavFix,
lastCourse: number
): [NavFix?, LineSegment[]?] => {
const speed = computeSpeed(leg, previousFix);
const endpoint = computeDestinationPoint(previousFix, (10).toMetre(), leg.Course.toTrue(previousFix));
const line = handleTurnAtFix(
leg.Course.toTrue(previousFix),
leg.Course.toTrue(previousFix),
lastCourse,
previousFix,
endpoint,
speed,
leg.TurnDir
);
return [undefined, line];
};
@@ -0,0 +1,88 @@
import computeDestinationPoint from 'geolib/es/computeDestinationPoint';
import Parser from '../parser';
import { computeSpeed } from '../utils/computeSpeed';
import { computeTurnRate } from '../utils/computeTurnRate';
// NOTE: Distance is interpreted as distance and not time
export const TerminatorsHA = (leg: HATerminalEntry, previousFix: NavFix): [NavFix?, LineSegment[]?] => {
const refFix = {
latitude: leg.WptLat,
longitude: leg.WptLon,
};
const speed = computeSpeed(leg, previousFix);
const turnRate = computeTurnRate(speed, Parser.AC_BANK);
const inboundCrs = leg.Course.toTrue(refFix);
const outboundCrs = inboundCrs.reciprocalCourse();
const line: LineSegment[] = [[previousFix.longitude, previousFix.latitude]];
// Generate top arc
let currentCrs = inboundCrs;
while (!currentCrs.equal(outboundCrs)) {
let time = 0;
if (leg.TurnDir === 'R') {
const delta = (outboundCrs - currentCrs).normaliseDegrees();
const increment = delta < 0.1 ? delta : 0.1;
currentCrs = (currentCrs + increment).normaliseDegrees();
time = increment / turnRate;
} else {
const delta = (currentCrs - outboundCrs).normaliseDegrees();
const increment = delta < 0.1 ? delta : 0.1;
currentCrs = (currentCrs - increment).normaliseDegrees();
time = increment / turnRate;
}
const arcFix = computeDestinationPoint(
{
latitude: line.at(-1)![1],
longitude: line.at(-1)![0],
},
((speed / 3600) * time).toMetre(),
currentCrs
);
line.push([arcFix.longitude, arcFix.latitude]);
}
const outboundStart = computeDestinationPoint(
{
latitude: line.at(-1)![1],
longitude: line.at(-1)![0],
},
leg.Distance.toMetre(),
outboundCrs
);
line.push([outboundStart.longitude, outboundStart.latitude]);
// Generate bottom arc
currentCrs = outboundCrs;
while (!currentCrs.equal(inboundCrs)) {
let time = 0;
if (leg.TurnDir === 'R') {
const delta = (inboundCrs - currentCrs).normaliseDegrees();
const increment = delta < 0.1 ? delta : 0.1;
currentCrs = (currentCrs + increment).normaliseDegrees();
time = increment / turnRate;
} else {
const delta = (currentCrs - inboundCrs).normaliseDegrees();
const increment = delta < 0.1 ? delta : 0.1;
currentCrs = (currentCrs - increment).normaliseDegrees();
time = increment / turnRate;
}
const arcFix = computeDestinationPoint(
{
latitude: line.at(-1)![1],
longitude: line.at(-1)![0],
},
((speed / 3600) * time).toMetre(),
currentCrs
);
line.push([arcFix.longitude, arcFix.latitude]);
}
line.push([refFix.longitude, refFix.latitude]);
return [refFix, line];
};
@@ -0,0 +1,88 @@
import computeDestinationPoint from 'geolib/es/computeDestinationPoint';
import Parser from '../parser';
import { computeSpeed } from '../utils/computeSpeed';
import { computeTurnRate } from '../utils/computeTurnRate';
// NOTE: Distance is interpreted as distance and not time
export const TerminatorsHF = (leg: HFTerminalEntry, previousFix: NavFix): [NavFix?, LineSegment[]?] => {
const refFix = {
latitude: leg.WptLat,
longitude: leg.WptLon,
};
const speed = computeSpeed(leg, previousFix);
const turnRate = computeTurnRate(speed, Parser.AC_BANK);
const inboundCrs = leg.Course.toTrue(refFix);
const outboundCrs = inboundCrs.reciprocalCourse();
const line: LineSegment[] = [[previousFix.longitude, previousFix.latitude]];
// Generate top arc
let currentCrs = inboundCrs;
while (!currentCrs.equal(outboundCrs)) {
let time = 0;
if (leg.TurnDir === 'R') {
const delta = (outboundCrs - currentCrs).normaliseDegrees();
const increment = delta < 0.1 ? delta : 0.1;
currentCrs = (currentCrs + increment).normaliseDegrees();
time = increment / turnRate;
} else {
const delta = (currentCrs - outboundCrs).normaliseDegrees();
const increment = delta < 0.1 ? delta : 0.1;
currentCrs = (currentCrs - increment).normaliseDegrees();
time = increment / turnRate;
}
const arcFix = computeDestinationPoint(
{
latitude: line.at(-1)![1],
longitude: line.at(-1)![0],
},
((speed / 3600) * time).toMetre(),
currentCrs
);
line.push([arcFix.longitude, arcFix.latitude]);
}
const outboundStart = computeDestinationPoint(
{
latitude: line.at(-1)![1],
longitude: line.at(-1)![0],
},
leg.Distance.toMetre(),
outboundCrs
);
line.push([outboundStart.longitude, outboundStart.latitude]);
// Generate bottom arc
currentCrs = outboundCrs;
while (!currentCrs.equal(inboundCrs)) {
let time = 0;
if (leg.TurnDir === 'R') {
const delta = (inboundCrs - currentCrs).normaliseDegrees();
const increment = delta < 0.1 ? delta : 0.1;
currentCrs = (currentCrs + increment).normaliseDegrees();
time = increment / turnRate;
} else {
const delta = (currentCrs - inboundCrs).normaliseDegrees();
const increment = delta < 0.1 ? delta : 0.1;
currentCrs = (currentCrs - increment).normaliseDegrees();
time = increment / turnRate;
}
const arcFix = computeDestinationPoint(
{
latitude: line.at(-1)![1],
longitude: line.at(-1)![0],
},
((speed / 3600) * time).toMetre(),
currentCrs
);
line.push([arcFix.longitude, arcFix.latitude]);
}
line.push([refFix.longitude, refFix.latitude]);
return [refFix, line];
};
@@ -0,0 +1,88 @@
import computeDestinationPoint from 'geolib/es/computeDestinationPoint';
import Parser from '../parser';
import { computeSpeed } from '../utils/computeSpeed';
import { computeTurnRate } from '../utils/computeTurnRate';
// NOTE: Distance is interpreted as distance and not time
export const TerminatorsHM = (leg: HMTerminalEntry, previousFix: NavFix): [NavFix?, LineSegment[]?] => {
const refFix = {
latitude: leg.WptLat,
longitude: leg.WptLon,
};
const speed = computeSpeed(leg, previousFix);
const turnRate = computeTurnRate(speed, Parser.AC_BANK);
const inboundCrs = leg.Course.toTrue(refFix);
const outboundCrs = inboundCrs.reciprocalCourse();
const line: LineSegment[] = [[previousFix.longitude, previousFix.latitude]];
// Generate top arc
let currentCrs = inboundCrs;
while (!currentCrs.equal(outboundCrs)) {
let time = 0;
if (leg.TurnDir === 'R') {
const delta = (outboundCrs - currentCrs).normaliseDegrees();
const increment = delta < 0.1 ? delta : 0.1;
currentCrs = (currentCrs + increment).normaliseDegrees();
time = increment / turnRate;
} else {
const delta = (currentCrs - outboundCrs).normaliseDegrees();
const increment = delta < 0.1 ? delta : 0.1;
currentCrs = (currentCrs - increment).normaliseDegrees();
time = increment / turnRate;
}
const arcFix = computeDestinationPoint(
{
latitude: line.at(-1)![1],
longitude: line.at(-1)![0],
},
((speed / 3600) * time).toMetre(),
currentCrs
);
line.push([arcFix.longitude, arcFix.latitude]);
}
const outboundStart = computeDestinationPoint(
{
latitude: line.at(-1)![1],
longitude: line.at(-1)![0],
},
leg.Distance.toMetre(),
outboundCrs
);
line.push([outboundStart.longitude, outboundStart.latitude]);
// Generate bottom arc
currentCrs = outboundCrs;
while (!currentCrs.equal(inboundCrs)) {
let time = 0;
if (leg.TurnDir === 'R') {
const delta = (inboundCrs - currentCrs).normaliseDegrees();
const increment = delta < 0.1 ? delta : 0.1;
currentCrs = (currentCrs + increment).normaliseDegrees();
time = increment / turnRate;
} else {
const delta = (currentCrs - inboundCrs).normaliseDegrees();
const increment = delta < 0.1 ? delta : 0.1;
currentCrs = (currentCrs - increment).normaliseDegrees();
time = increment / turnRate;
}
const arcFix = computeDestinationPoint(
{
latitude: line.at(-1)![1],
longitude: line.at(-1)![0],
},
((speed / 3600) * time).toMetre(),
currentCrs
);
line.push([arcFix.longitude, arcFix.latitude]);
}
line.push([refFix.longitude, refFix.latitude]);
return [refFix, line];
};
@@ -0,0 +1,18 @@
import Parser from '../parser';
export const TerminatorsIF = (leg: IFTerminalEntry, waypoint?: Waypoint): NavFix => {
const targetFix: NavFix = {
latitude: leg.WptLat,
longitude: leg.WptLon,
name: waypoint?.Ident ?? undefined,
isFlyOver: leg.IsFlyOver,
altitude: leg.Alt ? leg.Alt.parseAltitude() : 0,
speed: leg.SpeedLimit ? leg.SpeedLimit : Parser.AC_SPEED,
speedConstraint: leg.SpeedLimit,
altitudeConstraint: leg.Alt,
IsFAF: leg.IsFAF,
IsMAP: leg.IsMAP,
};
return targetFix;
};
@@ -0,0 +1,72 @@
import computeDestinationPoint from 'geolib/es/computeDestinationPoint';
import { generatePerformanceArc } from '../pathGenerators/generatePerformanceArc';
import { computeIntersection } from '../utils/computeIntersection';
import { computeSpeed } from '../utils/computeSpeed';
export const TerminatorsPI = (
leg: PITerminalEntry,
nextLeg: CFTerminalEntry, // As per NG docs in the TrmLegTypes.json
previousFix: NavFix,
waypoints: [Waypoint?, Waypoint?]
): [NavFix?, LineSegment[]?] => {
const speed = computeSpeed(leg, previousFix);
const originFix: NavFix = {
latitude: leg.WptLat,
longitude: leg.WptLon,
name: waypoints[0]?.Ident ?? undefined,
isFlyOver: leg.IsFlyOver,
altitude: leg.Alt ? leg.Alt.parseAltitude() : previousFix.altitude,
speed: speed,
speedConstraint: leg.SpeedLimit,
altitudeConstraint: leg.Alt,
IsFAF: leg.IsFAF,
IsMAP: leg.IsMAP,
};
const endFix: NavFix = {
latitude: nextLeg.WptLat,
longitude: nextLeg.WptLon,
name: waypoints[1]?.Ident ?? undefined,
isFlyOver: leg.IsFlyOver,
altitude: leg.Alt ? leg.Alt.parseAltitude() : previousFix.altitude,
speed: speed,
speedConstraint: leg.SpeedLimit,
altitudeConstraint: leg.Alt,
IsFAF: leg.IsFAF,
IsMAP: leg.IsMAP,
};
const outboundCrs = leg.Course.toTrue(endFix);
const interceptCrs = nextLeg.Course.toTrue(endFix);
const line: LineSegment[] = [
[originFix.longitude, originFix.latitude],
[endFix.longitude, endFix.latitude],
];
// Outbound end
const outEnd = computeDestinationPoint(
endFix,
((speed / 3600) * 60).toMetre(), // 1min leg
outboundCrs
);
line.push([outEnd.longitude, outEnd.latitude]);
// Arc
line.push(...generatePerformanceArc(outboundCrs.reciprocalCourse(), outboundCrs, outEnd, speed, leg.TurnDir));
// Intercept
const interceptFix = computeIntersection(
{
latitude: line.at(-1)![1],
longitude: line.at(-1)![0],
},
outboundCrs.reciprocalCourse(),
endFix,
interceptCrs.reciprocalCourse()
);
line.push([interceptFix!.longitude, interceptFix!.latitude]);
line.push([endFix!.longitude, endFix!.latitude]);
return [undefined, line];
};
@@ -0,0 +1,35 @@
import { generateRFArc } from '../pathGenerators/generateRFArc';
import { computeSpeed } from '../utils/computeSpeed';
// NOTE: Direct entry into an RF does not calculate a usable line, given inbound course is unknown.
export const TerminatorsRF = (
leg: RFTerminalEntry,
previousFix: NavFix,
lastCourse: number,
waypoint?: Waypoint
): [NavFix?, LineSegment[]?] => {
const targetFix: NavFix = {
latitude: leg.WptLat,
longitude: leg.WptLon,
name: waypoint?.Ident ?? undefined,
isFlyOver: leg.IsFlyOver,
altitude: leg.Alt ? leg.Alt.parseAltitude() : previousFix.altitude,
speed: computeSpeed(leg, previousFix),
speedConstraint: leg.SpeedLimit,
altitudeConstraint: leg.Alt,
IsFAF: leg.IsFAF,
IsMAP: leg.IsMAP,
};
const line = generateRFArc(
leg.Course.toTrue(targetFix),
lastCourse,
previousFix,
{ latitude: leg.CenterLat, longitude: leg.CenterLon },
leg.TurnDir
);
line.push([targetFix.longitude, targetFix.latitude]);
return [targetFix, line];
};
+119
View File
@@ -0,0 +1,119 @@
import computeDestinationPoint from 'geolib/es/computeDestinationPoint';
import getGreatCircleBearing from 'geolib/es/getGreatCircleBearing';
import getPreciseDistance from 'geolib/es/getPreciseDistance';
import Parser from '../parser';
import { generateTangentArc } from '../pathGenerators/generateTangentArc';
import { computeSpeed } from '../utils/computeSpeed';
import { computeTurnRate } from '../utils/computeTurnRate';
export const TerminatorsTF = (
leg: TFTerminalEntry,
previousFix: NavFix,
lastCourse: number,
waypoint?: Waypoint
): [NavFix?, LineSegment[]?] => {
const speed = computeSpeed(leg, previousFix);
const line: LineSegment[] = [];
const targetFix: NavFix = {
latitude: leg.WptLat,
longitude: leg.WptLon,
name: waypoint?.Ident ?? undefined,
isFlyOver: leg.IsFlyOver,
altitude: leg.Alt ? leg.Alt.parseAltitude() : previousFix.altitude,
speed: speed,
speedConstraint: leg.SpeedLimit,
altitudeConstraint: leg.Alt,
IsFAF: leg.IsFAF,
IsMAP: leg.IsMAP,
};
const crsIntoEndpoint = getGreatCircleBearing(previousFix, targetFix);
// Compute overfly arc
let arc1: LineSegment[] | null = null;
let arc2: LineSegment[] = [[previousFix.longitude, previousFix.latitude]];
if (previousFix.isFlyOver) {
arc1 = generateTangentArc(crsIntoEndpoint, lastCourse, previousFix, targetFix, leg.TurnDir);
} else {
arc1 = [[previousFix.longitude, previousFix.latitude]];
}
let arc;
if (arc1 && arc1.length > 1) {
const endCrs = getGreatCircleBearing(
{
latitude: arc1.at(-1)![1],
longitude: arc1.at(-1)![0],
},
targetFix
);
const endDist = getPreciseDistance(
{
latitude: arc1.at(-1)![1],
longitude: arc1.at(-1)![0],
},
targetFix
);
if (endDist <= 25 || (endCrs <= crsIntoEndpoint + 1 && endCrs >= crsIntoEndpoint - 1)) arc = arc1;
}
if (previousFix.isFlyOver && (!lastCourse.equal(crsIntoEndpoint) || !lastCourse.equal(crsIntoEndpoint))) {
const turnRate = computeTurnRate(speed, Parser.AC_BANK);
let updatedCrsToIntercept = getGreatCircleBearing(previousFix, targetFix);
// Turn Dir
if (!leg.TurnDir || leg.TurnDir === 'E') {
let prov = lastCourse - crsIntoEndpoint;
prov = prov > 180 ? prov - 360 : prov <= -180 ? prov + 360 : prov;
leg.TurnDir = prov > 0 ? 'L' : 'R';
}
// Generate arc
let lastDistance = getPreciseDistance(previousFix, targetFix);
while (!updatedCrsToIntercept.equal(crsIntoEndpoint)) {
let interceptAngle = 0;
if (leg.TurnDir === 'R') interceptAngle = Math.abs(lastCourse - crsIntoEndpoint);
else interceptAngle = Math.abs(crsIntoEndpoint - lastCourse);
let time = 0;
const increment = 0.1;
if (interceptAngle < 44.9 || interceptAngle >= 45.1) {
if (leg.TurnDir === 'R') {
lastCourse = (lastCourse + increment).normaliseDegrees();
time = increment / turnRate;
} else {
lastCourse = (lastCourse - increment).normaliseDegrees();
time = increment / turnRate;
}
} else time = increment / turnRate;
const arcFix = computeDestinationPoint(
{
latitude: arc2.at(-1)![1],
longitude: arc2.at(-1)![0],
},
((speed / 3600) * time).toMetre(),
lastCourse
);
arc2.push([arcFix.longitude, arcFix.latitude]);
// Update previousFix
previousFix.latitude = arcFix.latitude;
previousFix.longitude = arcFix.longitude;
updatedCrsToIntercept = getGreatCircleBearing(previousFix, targetFix);
const newDistance = getPreciseDistance(previousFix, targetFix);
if (lastDistance <= newDistance && lastDistance < 25) break;
lastDistance = newDistance;
}
}
if (!arc) arc = arc2;
line.push(...arc);
line.push([targetFix.longitude, targetFix.latitude]);
return [targetFix, line];
};
@@ -0,0 +1,41 @@
import computeDestinationPoint from 'geolib/es/computeDestinationPoint';
import Parser from '../parser';
import { generateOverflyArc } from '../pathGenerators/generateOverflyArc';
import { computeSpeed } from '../utils/computeSpeed';
// NOTE: No wind adjustments to be made, no clue how *that* would draw
export const TerminatorsVA = (
leg: VATerminalEntry,
previousFix: NavFix,
lastCourse: number
): [NavFix?, LineSegment[]?] => {
const speed = computeSpeed(leg, previousFix);
const crsIntoEndpoint = leg.Course.toTrue(previousFix);
// Compute overfly
const [line, arcEnd, _lastCourse] = generateOverflyArc(crsIntoEndpoint, lastCourse, previousFix, speed, leg.TurnDir);
lastCourse = _lastCourse;
// Compute intercept of crs from arc end and expected altitude
const targetFix: NavFix = {
...computeDestinationPoint(
arcEnd,
(
((leg.Alt.parseAltitude() - (previousFix.altitude ?? 0)) / Parser.AC_VS) *
((previousFix.speed ? previousFix.speed : Parser.AC_SPEED) / 60)
).toMetre(),
crsIntoEndpoint
),
name: leg.Alt,
isFlyOver: true,
altitude: leg.Alt ? leg.Alt.parseAltitude() : previousFix.altitude,
speed: speed,
speedConstraint: leg.SpeedLimit,
altitudeConstraint: leg.Alt,
IsFAF: leg.IsFAF,
IsMAP: leg.IsMAP,
};
line.push([targetFix.longitude, targetFix.latitude]);
return [targetFix, line];
};
@@ -0,0 +1,54 @@
import computeDestinationPoint from 'geolib/es/computeDestinationPoint';
import getGreatCircleBearing from 'geolib/es/getGreatCircleBearing';
import getPreciseDistance from 'geolib/es/getPreciseDistance';
import { generateOverflyArc } from '../pathGenerators/generateOverflyArc';
import { computeSpeed } from '../utils/computeSpeed';
// NOTE: No wind adjustments to be made, no clue how *that* would draw
// NOTE: Distance not adjusted for altitude in this demo
export const TerminatorsVD = (
leg: VDTerminalEntry,
previousFix: NavFix,
lastCourse: number
): [NavFix?, LineSegment[]?] => {
const navaid = {
latitude: leg.NavLat,
longitude: leg.NavLon,
};
const crsIntoEndpoint = leg.Course.toTrue(previousFix);
const speed = computeSpeed(leg, previousFix);
// Compute overfly
const [line, arcEnd, _lastCourse] = generateOverflyArc(crsIntoEndpoint, lastCourse, previousFix, speed, leg.TurnDir);
lastCourse = _lastCourse;
// Compute distance to fly from arc end
const crsToNavaid = getGreatCircleBearing(arcEnd, navaid);
const distToNavaid = getPreciseDistance(arcEnd, navaid);
let remainingDistance = leg.Distance.toMetre();
// Navaid behind us
if (Math.abs(crsToNavaid - lastCourse) > 90) {
remainingDistance -= distToNavaid;
}
// Navaid in front of us
else {
// Navaid will not be passed before distance is hit
if (distToNavaid > remainingDistance) remainingDistance = distToNavaid - remainingDistance;
}
// Compute intercept of crs from arc end and distance
const targetFix: NavFix = {
...computeDestinationPoint(arcEnd, remainingDistance, lastCourse),
name: leg.Distance.toString(),
isFlyOver: true,
altitude: leg.Alt ? leg.Alt.parseAltitude() : previousFix.altitude,
speed: speed,
speedConstraint: leg.SpeedLimit,
altitudeConstraint: leg.Alt,
IsFAF: leg.IsFAF,
IsMAP: leg.IsMAP,
};
line.push([targetFix.longitude, targetFix.latitude]);
return [targetFix, line];
};
@@ -0,0 +1,79 @@
import computeDestinationPoint from 'geolib/es/computeDestinationPoint';
import getGreatCircleBearing from 'geolib/es/getGreatCircleBearing';
import Parser from '../parser';
import { computeIntersection } from '../utils/computeIntersection';
import { computeSpeed } from '../utils/computeSpeed';
import { computeTurnRate } from '../utils/computeTurnRate';
import { getCourseAndFixForIntercepts } from '../utils/getCourseAndFixForIntercepts';
// NOTE: No wind adjustments to be made, no clue how *that* would draw
export const TerminatorsVI = (
leg: VITerminalEntry,
nextLeg: TerminalEntry,
previousFix: NavFix,
lastCourse: number
): [NavFix?, LineSegment[]?] => {
const speed = computeSpeed(leg, previousFix);
const crsIntoEndpoint = leg.Course.toTrue(previousFix);
const [crsToIntercept, nextFix] = getCourseAndFixForIntercepts(nextLeg, previousFix);
const line: LineSegment[] = [[previousFix.longitude, previousFix.latitude]];
// Compute overfly arc
if (previousFix.isFlyOver && !lastCourse.equal(crsIntoEndpoint)) {
const turnRate = computeTurnRate(speed, Parser.AC_BANK);
const updatedCrsToIntercept = getGreatCircleBearing(previousFix, nextFix);
// Turn Dir
if (!leg.TurnDir || leg.TurnDir === 'E') {
let prov = lastCourse - crsIntoEndpoint;
prov = prov > 180 ? prov - 360 : prov <= -180 ? prov + 360 : prov;
leg.TurnDir = prov > 0 ? 'L' : 'R';
}
// Generate arc
while (!lastCourse.equal(crsIntoEndpoint) && !updatedCrsToIntercept.equal(crsToIntercept)) {
let time = 0;
if (leg.TurnDir === 'R') {
const delta = (crsIntoEndpoint - lastCourse).normaliseDegrees();
const increment = delta < 0.1 ? delta : 0.1;
lastCourse = (lastCourse + increment).normaliseDegrees();
time = increment / turnRate;
} else {
const delta = (lastCourse - crsIntoEndpoint).normaliseDegrees();
const increment = delta < 0.1 ? delta : 0.1;
lastCourse = (lastCourse - increment).normaliseDegrees();
time = increment / turnRate;
}
const arcFix = computeDestinationPoint(
{
latitude: line.at(-1)![1],
longitude: line.at(-1)![0],
},
((speed / 3600) * time).toMetre(),
lastCourse
);
line.push([arcFix.longitude, arcFix.latitude]);
// Update previousFix
previousFix.latitude = arcFix.latitude;
previousFix.longitude = arcFix.longitude;
}
}
const interceptFix: NavFix = {
...computeIntersection(previousFix, leg.Course.toTrue(nextFix), nextFix, crsToIntercept)!,
isFlyOver: leg.IsFlyOver,
altitude: leg.Alt ? leg.Alt.parseAltitude() : previousFix.altitude,
speed: speed,
speedConstraint: leg.SpeedLimit,
altitudeConstraint: leg.Alt,
IsFAF: leg.IsFAF,
IsMAP: leg.IsMAP,
};
line.push([interceptFix.longitude, interceptFix.latitude]);
return [interceptFix, line];
};
@@ -0,0 +1,26 @@
import computeDestinationPoint from 'geolib/es/computeDestinationPoint';
import { handleTurnAtFix } from '../pathGenerators/handleTurnAtFix';
import { computeSpeed } from '../utils/computeSpeed';
// NOTE: No wind adjustments to be made, no clue how *that* would draw
export const TerminatorsVM = (
leg: VMTerminalEntry,
previousFix: NavFix,
lastCourse: number
): [NavFix?, LineSegment[]?] => {
const speed = computeSpeed(leg, previousFix);
const endpoint = computeDestinationPoint(previousFix, (10).toMetre(), leg.Course.toTrue(previousFix));
const line = handleTurnAtFix(
leg.Course.toTrue(previousFix),
leg.Course.toTrue(previousFix),
lastCourse,
previousFix,
endpoint,
speed,
leg.TurnDir
);
return [undefined, line];
};
@@ -0,0 +1,38 @@
import { generateOverflyArc } from '../pathGenerators/generateOverflyArc';
import { computeIntersection } from '../utils/computeIntersection';
import { computeSpeed } from '../utils/computeSpeed';
// NOTE: No wind adjustments to be made, no clue how *that* would draw
export const TerminatorsVR = (
leg: VRTerminalEntry,
previousFix: NavFix,
lastCourse: number
): [NavFix?, LineSegment[]?] => {
const navaid = {
latitude: leg.NavLat,
longitude: leg.NavLon,
};
const crsFromEndpoint = leg.Course.toTrue(previousFix);
const crsIntoEndpoint = leg.NavBear.toTrue(navaid);
const speed = computeSpeed(leg, previousFix);
// Compute overfly
const [line, arcEnd, _lastCourse] = generateOverflyArc(crsFromEndpoint, lastCourse, previousFix, speed, leg.TurnDir);
lastCourse = _lastCourse;
// Compute intercept of crs from arc end and radial
const interceptFix: NavFix = {
...computeIntersection(arcEnd, crsFromEndpoint, navaid, crsIntoEndpoint)!,
isFlyOver: leg.IsFlyOver,
altitude: leg.Alt ? leg.Alt.parseAltitude() : previousFix.altitude,
speed: speed,
speedConstraint: leg.SpeedLimit,
altitudeConstraint: leg.Alt,
IsFAF: leg.IsFAF,
IsMAP: leg.IsMAP,
};
line.push([interceptFix.longitude, interceptFix.latitude]);
return [interceptFix, line];
};
@@ -0,0 +1,74 @@
/**
* @param p1 Point 1
* @param brng1 Bearing from Point 1
* @param p2 Point 2
* @param brng2 bearing from Point 2
* @returns Intersection point
*/
export const computeIntersection = (
p1: NavFix,
brng1: number,
p2: NavFix,
brng2: number
): NavFix | undefined | null => {
if (isNaN(brng1)) throw new TypeError(`invalid brng1 ${brng1}`);
if (isNaN(brng2)) throw new TypeError(`invalid brng2 ${brng2}`);
const π = Math.PI;
// see www.edwilliams.org/avform.htm#Intersection
const φ1 = p1.latitude.toRadians(),
λ1 = p1.longitude.toRadians();
const φ2 = p2.latitude.toRadians(),
λ2 = p2.longitude.toRadians();
const θ13 = Number(brng1).toRadians(),
θ23 = Number(brng2).toRadians();
const Δφ = φ2 - φ1,
Δλ = λ2 - λ1;
// angular distance p1-p2
const δ12 =
2 *
Math.asin(
Math.sqrt(Math.sin(Δφ / 2) * Math.sin(Δφ / 2) + Math.cos(φ1) * Math.cos(φ2) * Math.sin(Δλ / 2) * Math.sin(Δλ / 2))
);
if (Math.abs(δ12) < Number.EPSILON) return p1; // coincident points
// initial/final bearings between points
const cosθa = (Math.sin(φ2) - Math.sin(φ1) * Math.cos(δ12)) / (Math.sin(δ12) * Math.cos(φ1));
const cosθb = (Math.sin(φ1) - Math.sin(φ2) * Math.cos(δ12)) / (Math.sin(δ12) * Math.cos(φ2));
const θa = Math.acos(Math.min(Math.max(cosθa, -1), 1)); // protect against rounding errors
const θb = Math.acos(Math.min(Math.max(cosθb, -1), 1)); // protect against rounding errors
const θ12 = Math.sin(λ2 - λ1) > 0 ? θa : 2 * π - θa;
const θ21 = Math.sin(λ2 - λ1) > 0 ? 2 * π - θb : θb;
const α1 = θ13 - θ12; // angle 2-1-3
const α2 = θ21 - θ23; // angle 1-2-3
if (Math.sin(α1) == 0 && Math.sin(α2) == 0) return undefined; // infinite intersections
if (Math.sin(α1) * Math.sin(α2) < 0) return p2; // ambiguous intersection (antipodal/360°)
const cosα3 = -Math.cos(α1) * Math.cos(α2) + Math.sin(α1) * Math.sin(α2) * Math.cos(δ12);
const δ13 = Math.atan2(Math.sin(δ12) * Math.sin(α1) * Math.sin(α2), Math.cos(α2) + Math.cos(α1) * cosα3);
const φ3 = Math.asin(
Math.min(Math.max(Math.sin(φ1) * Math.cos(δ13) + Math.cos(φ1) * Math.sin(δ13) * Math.cos(θ13), -1), 1)
);
const Δλ13 = Math.atan2(Math.sin(θ13) * Math.sin(δ13) * Math.cos(φ1), Math.cos(δ13) - Math.sin(φ1) * Math.sin(φ3));
const λ3 = λ1 + Δλ13;
const lat = φ3.toDegrees();
const lon = λ3.toDegrees();
return {
...p1,
latitude: lat,
longitude: lon,
name: 'INTC',
isIntersection: true,
};
};
@@ -0,0 +1,12 @@
import Parser from '../parser';
export const computeSpeed = (leg: TerminalEntry, previousFix: NavFix) => {
if (leg.SpeedLimit) return leg.SpeedLimit;
if (previousFix.speed) {
if (previousFix.speed < Parser.AC_SPEED) return Parser.AC_SPEED;
return previousFix.speed;
}
return Parser.AC_SPEED;
};
@@ -0,0 +1,3 @@
export const computeTurnRate = (speed: number, bank: number) => {
return (1091 * Math.tan(bank.toRadians())) / speed;
};
@@ -0,0 +1,46 @@
import { magvar } from 'magvar';
Number.prototype.toRadians = function () {
return ((this as number) * Math.PI) / 180;
};
Number.prototype.toDegrees = function () {
return ((this as number) * 180) / Math.PI;
};
Number.prototype.reciprocalCourse = function () {
let inv = (this as number) + 180;
inv = inv >= 360 ? inv - 360 : inv;
return inv;
};
Number.prototype.normaliseDegrees = function () {
return (this as number) >= 360
? (this as number) - 360
: (this as number) < 0
? (this as number) + 360
: (this as number);
};
Number.prototype.toTrue = function (fix) {
const _magvar = magvar(fix.latitude, fix.longitude); //Magvar is returned + for East
return ((this as number) + _magvar).normaliseDegrees();
};
Number.prototype.toMetre = function () {
return (this as number) * 1852.0;
};
Number.prototype.equal = function (other: number) {
return Math.abs((this as number) - other) < 0.1;
};
String.prototype.parseAltitude = function () {
switch (this.length) {
case 5:
return Number.parseInt(this as string);
case 6:
return Number.parseInt(this.substring(0, 5));
case 12: {
const upper = Number.parseInt(this.substring(0, 5));
const lower = Number.parseInt(this.substring(6, 12));
return lower + (upper - lower) / 2;
}
default:
return -1;
}
};
@@ -0,0 +1,49 @@
import getGreatCircleBearing from 'geolib/es/getGreatCircleBearing';
/**
* @param leg Leg to examine
* @param origin Origin of current leg
* @returns Adjusted course and fix
*/
export const getCourseAndFixForIntercepts = (leg: TerminalEntry, origin: NavFix): [number, NavFix] => {
switch (leg.TrackCode) {
case 'CF': {
const _leg = leg as CFTerminalEntry;
const fix = { latitude: _leg.WptLat, longitude: _leg.WptLon };
return [_leg.Course.reciprocalCourse().toTrue(fix), fix];
}
case 'FM': {
const _leg = leg as FMTerminalEntry;
const fix = { latitude: _leg.WptLat, longitude: _leg.WptLon };
return [_leg.Course.toTrue(fix), fix];
}
case 'TF': {
const _leg = leg as TFTerminalEntry;
return [
getGreatCircleBearing(origin, {
latitude: _leg.WptLat,
longitude: _leg.WptLon,
}),
{ latitude: _leg.WptLat, longitude: _leg.WptLon },
];
}
case 'AF': {
const _leg = leg as AFTerminalEntry;
const fix = { latitude: _leg.WptLat, longitude: _leg.WptLon };
return [_leg.Course.reciprocalCourse().toTrue(fix), fix];
}
case 'DF': {
const _leg = leg as DFTerminalEntry;
const fix = { latitude: _leg.WptLat, longitude: _leg.WptLon };
return [-1, fix];
}
case 'RF': {
const _leg = leg as RFTerminalEntry;
const fix = { latitude: _leg.WptLat, longitude: _leg.WptLon };
return [_leg.Course.toTrue(fix), fix];
}
default: {
return [-1, origin];
}
}
};
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@import 'tailwindcss';
@theme {
--animate-fade-in-scale: fade-in-scale 0.3s ease-out;
@keyframes fade-in-scale {
0% {
opacity: 0;
transform: scale(0.95);
}
100% {
opacity: 1;
transform: scale(1);
}
}
}
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export declare global {
interface Number {
/**
* @returns Value converted from degrees to radians
*/
toRadians: () => number;
/**
* @returns Value converted from radians to degrees
*/
toDegrees: () => number;
/**
* @returns Reciprocal course of value
*/
reciprocalCourse: () => number;
/**
* @returns Normalises to [0,360)
*/
normaliseDegrees: () => number;
/**
* @param fix Fix for magnetic declination
* @returns Value referencing true north
*/
toTrue: (fix: { latitude: number; longitude: number }) => number;
/**
* @returns Value converted from nmi to metres
*/
toMetre: () => number;
/**
* @returns True if delta is less than 0.1
*/
equal: (other: number) => boolean;
}
interface String {
/**
* @returns Value parsed from altitude constraint
*/
parseAltitude: () => number;
}
}
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declare module 'geojson' {
export const parse: (data: object, format: object) => object;
}
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@@ -0,0 +1,9 @@
export declare global {
type Chart = {
data: string;
index_number: string;
bounds: LatLngBoundsExpression;
};
type Procedure = { name: string; data: object };
}
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import 'leaflet';
declare module 'leaflet' {
export function shapeMarker(
latlng: LatLngExpression,
options?: PathOptions & {
shape?:
| 'diamond'
| 'square'
| 'triangle'
| 'triangle-up'
| 'triangle-down'
| 'arrowhead'
| 'arrowhead-up'
| 'arrowhead-down'
| 'circle'
| 'x'
| string;
radius?: number;
rotation?: number;
}
): Path;
}
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declare module 'magvar' {
export const magvar: (latitude: number, longitude: number) => number;
}
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export declare global {
type Waypoint = {
ID: number;
Ident: string;
};
type Runway = {
ID: number;
AirportID: number;
Latitude: number;
Longitude: number;
Elevation: number;
Ident: string;
TrueHeading: number;
};
type TrackCode =
| 'AF'
| 'CA'
| 'CD'
| 'CF'
| 'CI'
| 'CR'
| 'DF'
| 'FA'
| 'FC'
| 'FD'
| 'FM'
| 'HA'
| 'HF'
| 'HM'
| 'IF'
| 'PI'
| 'RF'
| 'TF'
| 'VA'
| 'VD'
| 'VI'
| 'VM'
| 'VR';
type TurnDirection = 'E' | 'L' | 'R';
type TerminalEntry = {
ID: number;
TerminalID: number;
Type: string;
Transition: string;
TrackCode: TrackCode;
WptID?: number;
WptLat?: number;
WptLon?: number;
TurnDir?: TurnDirection;
NavID?: number;
NavLat?: number;
NavLon?: number;
NavBear?: number;
NavDist?: number;
Course?: number;
Distance?: number;
Alt?: string;
Vnav: unknown;
CenterID?: number;
CenterLat?: number;
CenterLon?: number;
IsFlyOver: boolean;
SpeedLimit?: number;
IsFAF: boolean;
IsMAP: boolean;
};
type Terminal = {
ID: number;
AirportID: number;
ICAO: string;
FullName: string;
RwyID?: number;
Proc: 1 | 2 | 3;
};
type NavFix = {
latitude: number;
longitude: number;
altitude?: number;
speed?: number;
name?: string;
isFlyOver?: boolean;
altitudeConstraint?: string;
speedConstraint?: number;
IsFAF?: boolean;
IsMAP?: boolean;
// For map
isIntersection?: boolean;
};
type LineSegment = [number, number];
type Airport = {
ID: number;
ICAO: string;
Latitude: number;
Longitude: number;
};
}
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export declare global {
type AFTerminalEntry = Required<
Pick<
TerminalEntry,
'WptID' | 'WptLat' | 'WptLon' | 'TurnDir' | 'NavID' | 'NavLat' | 'NavLon' | 'NavBear' | 'NavDist' | 'Course'
>
> &
TerminalEntry;
}
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export declare global {
type CATerminalEntry = Required<Pick<TerminalEntry, 'Course' | 'Alt'>> & TerminalEntry;
}
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@@ -0,0 +1,4 @@
export declare global {
type CDTerminalEntry = Required<Pick<TerminalEntry, 'NavID' | 'NavLat' | 'NavLon' | 'Course' | 'Distance'>> &
TerminalEntry;
}
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@@ -0,0 +1,9 @@
export declare global {
type CFTerminalEntry = Required<
Pick<
TerminalEntry,
'WptID' | 'WptLat' | 'WptLon' | 'NavID' | 'NavLat' | 'NavLon' | 'NavBear' | 'NavDist' | 'Course' | 'Distance'
>
> &
TerminalEntry;
}
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export declare global {
type CITerminalEntry = Required<Pick<TerminalEntry, 'Course'>> & TerminalEntry;
}
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export declare global {
type CRTerminalEntry = Required<Pick<TerminalEntry, 'NavID' | 'NavLat' | 'NavLon' | 'NavBear' | 'Course'>> &
TerminalEntry;
}
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export declare global {
type DFTerminalEntry = Required<Pick<TerminalEntry, 'WptID' | 'WptLat' | 'WptLon' | 'IsFlyOver'>> & TerminalEntry;
}
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@@ -0,0 +1,9 @@
export declare global {
type FATerminalEntry = Required<
Pick<
TerminalEntry,
'WptID' | 'WptLat' | 'WptLon' | 'NavID' | 'NavLat' | 'NavLon' | 'NavBear' | 'NavDist' | 'Course' | 'Alt'
>
> &
TerminalEntry;
}
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export declare global {
type FCTerminalEntry = Required<
Pick<
TerminalEntry,
| 'WptID'
| 'WptLat'
| 'WptLon'
| 'IsFlyOver'
| 'NavID'
| 'NavLat'
| 'NavLon'
| 'NavBear'
| 'NavDist'
| 'Course'
| 'Distance'
>
> &
TerminalEntry;
}
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@@ -0,0 +1,9 @@
export declare global {
type FDTerminalEntry = Required<
Pick<
TerminalEntry,
'WptID' | 'WptLat' | 'WptLon' | 'NavID' | 'NavLat' | 'NavLon' | 'NavBear' | 'NavDist' | 'Course' | 'Distance'
>
> &
TerminalEntry;
}
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@@ -0,0 +1,9 @@
export declare global {
type FMTerminalEntry = Required<
Pick<
TerminalEntry,
'WptID' | 'WptLat' | 'WptLon' | 'NavID' | 'NavLat' | 'NavLon' | 'NavBear' | 'NavDist' | 'Course'
>
> &
TerminalEntry;
}
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export declare global {
type HATerminalEntry = Required<
Pick<TerminalEntry, 'WptID' | 'WptLat' | 'WptLon' | 'TurnDir' | 'Course' | 'Distance' | 'Alt'>
> &
TerminalEntry;
}
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@@ -0,0 +1,6 @@
export declare global {
type HFTerminalEntry = Required<
Pick<TerminalEntry, 'WptID' | 'WptLat' | 'WptLon' | 'TurnDir' | 'Course' | 'Distance'>
> &
TerminalEntry;
}
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@@ -0,0 +1,6 @@
export declare global {
type HMTerminalEntry = Required<
Pick<TerminalEntry, 'WptID' | 'WptLat' | 'WptLon' | 'TurnDir' | 'Course' | 'Distance'>
> &
TerminalEntry;
}
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@@ -0,0 +1,3 @@
export declare global {
type IFTerminalEntry = Required<Pick<TerminalEntry, 'WptID' | 'WptLat' | 'WptLon'>> & TerminalEntry;
}
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@@ -0,0 +1,19 @@
export declare global {
type PITerminalEntry = Required<
Pick<
TerminalEntry,
| 'WptID'
| 'WptLat'
| 'WptLon'
| 'NavID'
| 'NavLat'
| 'NavLon'
| 'NavBear'
| 'NavDist'
| 'Course'
| 'Distance'
| 'Alt'
>
> &
TerminalEntry;
}
+18
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export declare global {
type RFTerminalEntry = Required<
Pick<
TerminalEntry,
| 'WptID'
| 'WptLat'
| 'WptLon'
| 'TurnDir'
| 'NavBear'
| 'Course'
| 'Distance'
| 'CenterID'
| 'CenterLat'
| 'CenterLon'
>
> &
TerminalEntry;
}
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@@ -0,0 +1,3 @@
export declare global {
type TFTerminalEntry = Required<Pick<TerminalEntry, 'WptID' | 'WptLat' | 'WptLon' | 'IsFlyOver'>> & TerminalEntry;
}
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@@ -0,0 +1,3 @@
export declare global {
type VATerminalEntry = Required<Pick<TerminalEntry, 'Course' | 'Alt'>> & TerminalEntry;
}
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@@ -0,0 +1,4 @@
export declare global {
type VDTerminalEntry = Required<Pick<TerminalEntry, 'NavID' | 'NavLat' | 'NavLon' | 'Course' | 'Distance'>> &
TerminalEntry;
}
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@@ -0,0 +1,3 @@
export declare global {
type VITerminalEntry = Required<Pick<TerminalEntry, 'Course'>> & TerminalEntry;
}
+3
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@@ -0,0 +1,3 @@
export declare global {
type VMTerminalEntry = Required<Pick<TerminalEntry, 'Course'>> & TerminalEntry;
}
+4
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export declare global {
type VRTerminalEntry = Required<Pick<TerminalEntry, 'NavID' | 'NavLat' | 'NavLon' | 'NavBear' | 'Course'>> &
TerminalEntry;
}
+14
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@@ -0,0 +1,14 @@
/// <reference types="vite/client" />
interface ViteTypeOptions {
strictImportMetaEnv: unknown;
}
interface ImportMetaEnv {
readonly VITE_NG_CLIENT_ID: string;
readonly VITE_NG_CLIENT_SECRET: string;
}
interface ImportMeta {
readonly env: ImportMetaEnv;
}
+29
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@@ -0,0 +1,29 @@
{
"compilerOptions": {
"tsBuildInfoFile": "./node_modules/.tmp/tsconfig.app.tsbuildinfo",
"target": "ES2022",
"useDefineForClassFields": true,
"lib": ["ES2022", "DOM", "DOM.Iterable"],
"module": "ESNext",
"skipLibCheck": true,
"typeRoots": ["node_modules/@types", "src/types/**"],
/* Bundler mode */
"moduleResolution": "bundler",
"allowImportingTsExtensions": true,
"verbatimModuleSyntax": true,
"moduleDetection": "force",
"noEmit": true,
"jsx": "react-jsx",
"sourceMap": true,
/* Linting */
"strict": true,
"noUnusedLocals": true,
"noUnusedParameters": true,
"erasableSyntaxOnly": true,
"noFallthroughCasesInSwitch": true,
"noUncheckedSideEffectImports": true
},
"include": ["src"]
}
+4
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@@ -0,0 +1,4 @@
{
"files": [],
"references": [{ "path": "./tsconfig.app.json" }, { "path": "./tsconfig.node.json" }]
}
+27
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@@ -0,0 +1,27 @@
{
"compilerOptions": {
"tsBuildInfoFile": "./node_modules/.tmp/tsconfig.node.tsbuildinfo",
"target": "ES2023",
"lib": ["ES2023"],
"module": "ESNext",
"skipLibCheck": true,
"typeRoots": ["node_modules/@types", "src/types/**"],
/* Bundler mode */
"moduleResolution": "bundler",
"allowImportingTsExtensions": true,
"verbatimModuleSyntax": true,
"moduleDetection": "force",
"noEmit": true,
"sourceMap": true,
/* Linting */
"strict": true,
"noUnusedLocals": true,
"noUnusedParameters": true,
"erasableSyntaxOnly": true,
"noFallthroughCasesInSwitch": true,
"noUncheckedSideEffectImports": true
},
"include": ["vite.config.ts"]
}
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import tailwindcss from '@tailwindcss/vite';
import react from '@vitejs/plugin-react-swc';
import { defineConfig } from 'vite';
// https://vite.dev/config/
export default defineConfig({
plugins: [tailwindcss(), react()],
build: {
sourcemap: true,
},
});