Spaces:

gaur3009
/

spaceani

Running

App Files Files Community

spaceani / index.html

gaur3009

Update index.html

3da51b7 verified 5 months ago

raw

history blame contribute delete

18.3 kB

	<!DOCTYPE html>
	<html lang="en">
	<head>
	<!-- Enhanced Meta Tags -->
	<meta charset="UTF-8">
	<meta name="viewport" content="width=device-width, initial-scale=1.0">
	<meta name="description" content="Advanced Satellite Communication Simulator">

	<!-- Enhanced Styles -->
	<style>
	/* Complex CSS Animations */
	@keyframes quantum-glow {
	0% { filter: drop-shadow(0 0 5px #4ff1ff); }
	50% { filter: drop-shadow(0 0 20px #a162e8); }
	100% { filter: drop-shadow(0 0 5px #4ff1ff); }
	}

	/* Advanced UI Components */
	.holo-panel {
	background: linear-gradient(145deg, rgba(15,23,42,0.9), rgba(88,28,135,0.9));
	backdrop-filter: blur(12px);
	border: 1px solid rgba(79,209,255,0.3);
	border-radius: 20px;
	box-shadow: 0 8px 32px rgba(0,0,0,0.3);
	}
	</style>

	<!-- Additional Libraries -->
	<link href="https://unpkg.com/tippy.js@6/dist/tippy.css" rel="stylesheet">
	<script src="https://unpkg.com/[email protected]/examples/js/loaders/GLTFLoader.js"></script>
	<script src="https://cdn.jsdelivr.net/npm/@tweenjs/tween.js@18/dist/tween.umd.js"></script>
	</head>
	<body>
	<!-- Enhanced 3D Scene -->
	<div id="scene-container">
	<!-- Particle Systems -->
	<div id="quantum-particles"></div>

	<!-- Advanced UI -->
	<div class="command-center">
	<div class="strategic-overlay">
	<div class="hud-element" data-type="radar"></div>
	<div class="hud-element" data-type="telemetry"></div>
	<div class="holographic-console"></div>
	</div>
	</div>
	</div>

	<script type="module">
	// Complex Three.js Scene Configuration
	class QuantumScene {
	constructor() {
	this.initPostProcessing();
	this.initGalaxyField();
	this.loadAdvancedModels();
	}

	initPostProcessing() {
	// WebGL2 Rendering Pipeline
	this.renderTarget = new THREE.WebGLRenderTarget(
	window.innerWidth, window.innerHeight,
	{ samples: 8 }
	);

	// Screen-Space Reflections
	this.ssrPass = new SSRPass({
	renderer: this.renderer,
	scene: this.scene,
	camera: this.camera,
	width: window.innerWidth,
	height: window.innerHeight
	});
	}

	initGalaxyField() {
	// Star Particle System
	const starsGeometry = new THREE.BufferGeometry();
	const starPositions = new Float32Array(10000 * 3);

	for(let i = 0; i < 10000; i++) {
	starPositions[i3] = (Math.random() - 0.5) 2000;
	starPositions[i3+1] = (Math.random() - 0.5) 2000;
	starPositions[i3+2] = (Math.random() - 0.5) 2000;
	}

	starsGeometry.setAttribute('position',
	new THREE.BufferAttribute(starPositions, 3));

	const starsMaterial = new THREE.PointsMaterial({
	color: 0xFFFFFF,
	size: 0.7,
	transparent: true
	});

	this.starField = new THREE.Points(starsGeometry, starsMaterial);
	scene.add(this.starField);
	}

	async loadAdvancedModels() {
	// GLTF Model Loading
	const loader = new GLTFLoader();

	// High-precision Satellite Model
	this.satellite = await loader.loadAsync('models/quantum_satellite.glb');
	this.satellite.scene.traverse(child => {
	if(child.isMesh) {
	child.material = new THREE.MeshPhysicalMaterial({
	metalness: 0.9,
	roughness: 0.1,
	clearcoat: 1.0,
	emissive: '#4fd1ff'
	});
	}
	});

	// Add Antenna Animation Mixer
	this.antennaMixer = new THREE.AnimationMixer(this.satellite.scene);
	const antennaAction = this.antennaMixer.clipAction(
	this.satellite.animations[0]
	);
	antennaAction.play();
	}
	}

	// Advanced Protocol Simulation Engine
	class QuantumProtocolEngine {
	constructor() {
	this.transmissionQueue = new Map();
	this.errorProbability = 0.3;
	this.latencyProfile = {
	earthToSat: 1200,
	satToEarth: 800
	};

	this.initMachineLearningPredictor();
	}

	initMachineLearningPredictor() {
	// TensorFlow.js Model for Error Prediction
	this.errorModel = tf.sequential({
	layers: [
	tf.layers.dense({units: 8, inputShape: [4]}),
	tf.layers.dense({units: 4, activation: 'relu'}),
	tf.layers.dense({units: 1, activation: 'sigmoid'})
	]
	});

	this.errorModel.compile({
	optimizer: 'adam',
	loss: 'binaryCrossentropy'
	});
	}

	async predictPacketSuccess(environmentFactors) {
	const prediction = this.errorModel.predict(
	tf.tensor2d([environmentFactors])
	);
	return prediction.dataSync()[0];
	}
	}

	// Main Application Controller
	class AppController {
	constructor() {
	this.initScene();
	this.initUI();
	this.initEventHandlers();
	this.startPerformanceMonitoring();
	}

	initScene() {
	this.quantumScene = new QuantumScene();
	this.protocolEngine = new QuantumProtocolEngine();
	this.initDataVisualization();
	}

	initDataVisualization() {
	// WebGL-based Data Stream Visualization
	this.dataStream = new THREE.LineSegments(
	new THREE.BufferGeometry(),
	new THREE.LineBasicMaterial({
	color: 0x4fd1ff,
	transparent: true,
	opacity: 0.8
	})
	);

	this.quantumScene.scene.add(this.dataStream);

	// Real-time Geometry Updates
	this.streamPositions = new Float32Array(600);
	this.dataStream.geometry.setAttribute(
	'position',
	new THREE.BufferAttribute(this.streamPositions, 3)
	);
	}

	initUI() {
	// Reactive UI Components
	this.dashboard = new HoloDashboard({
	metrics: ['Throughput', 'Latency', 'Packet Loss'],
	renderTo: '#telemetry-panel'
	});

	this.commandInterface = new GestureController(
	'#holographic-console'
	);
	}

	handleTransmission(packet) {
	// Quantum Encryption Simulation
	const encryptedPacket = this.quantumEncrypt(packet);

	// Create Three.js Packet Visualization
	const packetGeometry = new THREE.SphereGeometry(0.2, 8, 8);
	const packetMaterial = new THREE.MeshBasicMaterial({
	color: 0xff5555
	});
	const packetMesh = new THREE.Mesh(packetGeometry, packetMaterial);

	// Animate through GSAP and Three.js
	this.animatePacket(packetMesh, () => {
	this.handleAcknowledge(encryptedPacket);
	});
	}

	quantumEncrypt(data) {
	// Simulated Quantum Key Distribution
	const key = new Uint8Array(32);
	window.crypto.getRandomValues(key);
	return { data, key };
	}
	}

	// Initialize Application
	const app = new AppController();

	// Advanced Animation System
	class QuantumAnimationSystem {
	constructor() {
	this.activeTweens = new Set();
	this.particlePools = {
	ack: new ParticlePool(1000, '#55ff55'),
	data: new ParticlePool(5000, '#4fd1ff')
	};
	}

	animatePacket(packetMesh, onComplete) {
	const trajectory = new THREE.CatmullRomCurve3([
	new THREE.Vector3(0, 0, 0),
	new THREE.Vector3(5, 3, 2),
	new THREE.Vector3(10, 0, 5)
	]);

	new TWEEN.Tween({ t: 0 })
	.to({ t: 1 }, 2000)
	.onUpdate(({ t }) => {
	const position = trajectory.getPoint(t);
	packetMesh.position.copy(position);
	})
	.onComplete(() => {
	onComplete();
	packetMesh.geometry.dispose();
	packetMesh.material.dispose();
	scene.remove(packetMesh);
	})
	.start();
	}
	}

	// ----------------------------
	// Network Protocol State Machines
	// ----------------------------
	class ProtocolStateMachine {
	constructor() {
	this.states = {
	IDLE: 0,
	WAIT_ACK: 1,
	ERROR_RECOVERY: 2,
	RATE_CONTROL: 3
	};

	this.currentState = this.states.IDLE;
	this.timeoutHandlers = new Map();
	this.sequenceNumber = 0;
	}

	transition(event) {
	const transitions = {
	[this.states.IDLE]: {
	SEND_REQUEST: () => {
	this.sendPacket();
	this.currentState = this.states.WAIT_ACK;
	this.startTimeout();
	}
	},
	[this.states.WAIT_ACK]: {
	ACK_RECEIVED: () => {
	this.clearTimeout();
	this.sequenceNumber ^= 1; // Toggle sequence
	this.currentState = this.states.IDLE;
	this.emit('packet_success');
	},
	TIMEOUT: () => {
	this.currentState = this.states.ERROR_RECOVERY;
	this.emit('retransmit');
	}
	},
	[this.states.ERROR_RECOVERY]: {
	RETRY_SUCCESS: () => {
	this.currentState = this.states.RATE_CONTROL;
	this.adjustTransmissionRate();
	},
	MAX_RETRIES: () => {
	this.currentState = this.states.IDLE;
	this.emit('fatal_error');
	}
	}
	};

	transitions[this.currentState][event]?.();
	}

	startTimeout() {
	const timer = setTimeout(() => {
	this.transition('TIMEOUT');
	}, this.calculateDynamicTimeout());
	this.timeoutHandlers.set(this.sequenceNumber, timer);
	}

	calculateDynamicTimeout() {
	const baseLatency = 1500; // ms
	const jitter = performance.now() % 300;
	return baseLatency + jitter + (this.errorCount * 200);
	}
	}

	// ----------------------------
	// Advanced Error Correction
	// ----------------------------
	class QuantumErrorCorrector {
	constructor() {
	this.codec = new ReedSolomonEncoder(QR_CODE_FIELD_256);
	this.interleaver = new BlockInterleaver(152, 256);
	this.convolutional = new ConvEncoder([0o7, 0o5]);
	}

	encode(packet) {
	const convEncoded = this.convolutional.encode(packet);
	const rsEncoded = this.codec.encode(convEncoded);
	return this.interleaver.interleave(rsEncoded);
	}

	decode(data) {
	try {
	const deinterleaved = this.interleaver.deinterleave(data);
	const rsDecoded = this.codec.decode(deinterleaved);
	return this.convolutional.decode(rsDecoded);
	} catch (error) {
	this.attemptQuantumCorrection(data);
	}
	}

	attemptQuantumCorrection(data) {
	const qubits = this.entangleQubits(data);
	return this.measureStabilizers(qubits);
	}
	}

	// ----------------------------
	// Machine Learning Predictors
	// ----------------------------
	class ChannelPredictor {
	async initializeModel() {
	this.model = await tf.loadLayersModel('models/channel-prediction.json');
	this.scaler = new StandardScaler();
	await this.scaler.load('scalers/channel-scales.bin');
	}

	async predictChannelConditions() {
	const features = await this.collectEnvironmentalFeatures();
	const tensor = this.scaler.transform(tf.tensor2d([features]));

	const prediction = this.model.predict(tensor);
	const [throughput, latency, errorProb] = prediction.dataSync();

	return { throughput, latency, errorProb };
	}

	async collectEnvironmentalFeatures() {
	return [
	this.solarRadiationLevel,
	this.ionosphericActivity,
	this.dopplerShift,
	this.antennaAlignment
	];
	}
	}

	// ----------------------------
	// Quantum Channel Simulation
	// ----------------------------
	class QuantumChannel {
	constructor() {
	this.entanglementPairs = new Map();
	this.initializeQuantumBackbone();
	}

	async initializeQuantumBackbone() {
	this.backboneConnection = await this.createEntangledPairs(1000);
	this.distributeEPRPairs();
	}

	async sendQuantumMessage(message) {
	const qubits = this.encodePhotons(message);
	const measurementBases = this.generateRandomBases(qubits.length);

	return {
	qubits,
	bases: measurementBases,
	sentAt: performance.now()
	};
	}

	detectEavesdropping(transmission) {
	const errorRate = this.calculateErrorRate(
	transmission.originalBases,
	transmission.receivedBases
	);

	return errorRate > QUANTUM_ERROR_THRESHOLD;
	}
	}

	// ----------------------------
	// Multiplayer Collaboration
	// ----------------------------
	class CollaborationEngine {
	constructor() {
	this.rtcConnection = new RTCPeerConnection(ICE_CONFIG);
	this.dataChannel = this.rtcConnection.createDataChannel('simData');
	this.setupSignalingServer();
	}

	setupSignalingServer() {
	this.socket = io('https://signaling.quantum-sim.com');
	this.socket.on('offer', async offer => {
	await this.rtcConnection.setRemoteDescription(offer);
	const answer = await this.rtcConnection.createAnswer();
	await this.rtcConnection.setLocalDescription(answer);
	this.socket.emit('answer', answer);
	});
	}

	syncSimulationState(state) {
	const compressed = LZ4.compress(state);
	this.dataChannel.send(compressed);
	}
	}

	// ----------------------------
	// Performance Optimization
	// ----------------------------
	class RenderPipelineOptimizer {
	constructor() {
	this.frameBudget = 16; // ms
	this.taskQueue = new PriorityQueue({
	comparator: (a, b) => a.priority - b.priority
	});

	this.initWebGL2Optimizations();
	}

	initWebGL2Optimizations() {
	this.vaoCache = new VAOCache(gl);
	this.texturePool = new TexturePool(gl);
	this.shaderCache = new ShaderProgramCache(gl);
	}

	scheduleTask(task) {
	this.taskQueue.queue(task);
	this.processTasks();
	}

	async processTasks() {
	while (this.taskQueue.length > 0) {
	const task = this.taskQueue.dequeue();
	const startTime = performance.now();

	await task.execute();

	const elapsed = performance.now() - startTime;
	this.adjustScheduler(elapsed);
	}
	}
	}

	// ----------------------------
	// Satellite Constellation Management
	// ----------------------------
	class ConstellationController {
	constructor() {
	this.satellites = new Map();
	this.ephemerisData = new Ephemeris();
	this.orbitalPlanes = 6;
	this.satsPerPlane = 11;

	this.initializeWalkerDelta();
	}

	initializeWalkerDelta() {
	const inclination = 53; // Degrees
	const altitude = 550; // Kilometers
	const phasing = 360 / (this.orbitalPlanes * this.satsPerPlane);

	for (let plane = 0; plane < this.orbitalPlanes; plane++) {
	for (let sat = 0; sat < this.satsPerPlane; sat++) {
	const satId = `${plane}-${sat}`;
	const params = {
	semiMajorAxis: altitude + EARTH_RADIUS,
	eccentricity: 0.001,
	inclination,
	raan: plane * 360 / this.orbitalPlanes,
	argOfPerigee: 0,
	trueAnomaly: sat * phasing
	};

	this.satellites.set(satId, new Satellite(params));
	}
	}
	}

	updateConstellation(dt) {
	this.satellites.forEach(sat => {
	const [position, velocity] = this.ephemerisData.propagate(
	sat.orbitalElements,
	dt
	);

	sat.updatePosition(position);
	sat.updateVelocity(velocity);
	});
	}
	}

	// ----------------------------
	// Security Layer
	// ----------------------------
	class QuantumSecurityModule {
	constructor() {
	this.sessionKeys = new Map();
	this.initializeQKD();
	}

	async initializeQKD() {
	this.qkdChannel = new QuantumChannel();
	const rawKey = await this.qkdChannel.establishKey(256);
	this.sessionKey = await this.processRawKey(rawKey);
	}

	async processRawKey(rawKey) {
	const authenticated = await this.authenticateKey(rawKey);
	return this.privacyAmplify(authenticated);
	}

	async encryptMessage(message) {
	const iv = crypto.getRandomValues(new Uint8Array(12));
	const cipher = await crypto.subtle.encrypt(
	{ name: 'AES-GCM', iv },
	this.sessionKey,
	new TextEncoder().encode(message)
	);

	return { iv, cipher };
	}
	}
	</script>
	</body>
	</html>