Quantum Web Explorer

0

 Here's a **"Quantum Web Explorer"** - a surreal interface where websites exist as probabilistic waveforms that collapse into reality when observed, with parallel browsing dimensions and quantum entanglement between sites:


```html

<!DOCTYPE html>

<html lang="en">

<head>

  <meta charset="UTF-8">

  <meta name="viewport" content="width=device-width, initial-scale=1.0">

  <title>Quantum Web Explorer</title>

  <style>

    :root {

      --quantum-purple: #8a2be2;

      --quantum-blue: #00bfff;

      --quantum-pink: #ff1493;

      --quantum-teal: #40e0d0;

    }

    

    body {

      margin: 0;

      overflow: hidden;

      background: #000;

      font-family: 'Arial', sans-serif;

      color: white;

    }

    

    #quantumField {

      position: absolute;

      top: 0;

      left: 0;

      width: 100%;

      height: 100%;

      z-index: 1;

    }

    

    .quantum-wave {

      position: absolute;

      border-radius: 50%;

      pointer-events: none;

      z-index: 2;

      opacity: 0.7;

      mix-blend-mode: screen;

      transform-origin: center;

      animation: wavePulse 4s infinite alternate;

    }

    

    @keyframes wavePulse {

      0% { transform: scale(0.8); opacity: 0.3; }

      100% { transform: scale(1.2); opacity: 0.7; }

    }

    

    .quantum-particle {

      position: absolute;

      width: 80px;

      height: 80px;

      border-radius: 50%;

      display: flex;

      align-items: center;

      justify-content: center;

      cursor: pointer;

      z-index: 3;

      transition: all 0.5s cubic-bezier(0.175, 0.885, 0.32, 1.275);

      overflow: hidden;

      box-shadow: 0 0 30px currentColor;

      filter: brightness(1);

    }

    

    .quantum-particle.collapsed {

      animation: particleGlow 2s infinite alternate;

      filter: brightness(1.5);

    }

    

    @keyframes particleGlow {

      0% { box-shadow: 0 0 30px currentColor; }

      100% { box-shadow: 0 0 60px currentColor; }

    }

    

    .quantum-particle iframe {

      width: 100%;

      height: 100%;

      border: none;

      pointer-events: none;

      opacity: 0.6;

      transition: opacity 0.5s;

    }

    

    .quantum-particle.collapsed iframe {

      opacity: 0.9;

    }

    

    .particle-label {

      position: absolute;

      bottom: -25px;

      left: 0;

      right: 0;

      text-align: center;

      font-size: 11px;

      opacity: 0;

      transition: opacity 0.3s;

      text-shadow: 0 0 5px #000;

    }

    

    .quantum-particle:hover .particle-label {

      opacity: 1;

    }

    

    #quantumPortal {

      position: fixed;

      top: 50%;

      left: 50%;

      transform: translate(-50%, -50%);

      width: 80vw;

      height: 70vh;

      background: rgba(10, 5, 20, 0.95);

      border-radius: 20px;

      z-index: 10;

      display: none;

      flex-direction: column;

      overflow: hidden;

      border: 2px solid var(--quantum-teal);

      box-shadow: 0 0 50px rgba(64, 224, 208, 0.6);

    }

    

    #quantumPortal.active {

      display: flex;

      animation: portalShimmer 3s infinite alternate;

    }

    

    @keyframes portalShimmer {

      0% { box-shadow: 0 0 50px rgba(64, 224, 208, 0.6); }

      100% { box-shadow: 0 0 80px rgba(138, 43, 226, 0.8); }

    }

    

    #portalIframe {

      flex: 1;

      border: none;

      background: #000;

    }

    

    #portalTitle {

      padding: 15px;

      background: linear-gradient(to right, #4b0082, #8a2be2);

      color: white;

      text-align: center;

      font-size: 16px;

      letter-spacing: 1px;

    }

    

    #quantumControls {

      position: fixed;

      bottom: 30px;

      left: 50%;

      transform: translateX(-50%);

      display: flex;

      gap: 20px;

      z-index: 20;

    }

    

    .quantum-btn {

      width: 60px;

      height: 60px;

      border-radius: 50%;

      background: rgba(30, 0, 60, 0.7);

      border: 2px solid var(--quantum-teal);

      color: var(--quantum-teal);

      display: flex;

      align-items: center;

      justify-content: center;

      cursor: pointer;

      font-size: 24px;

      box-shadow: 0 0 20px rgba(64, 224, 208, 0.5);

      transition: all 0.3s;

    }

    

    .quantum-btn:hover {

      background: rgba(75, 0, 130, 0.8);

      transform: scale(1.1);

      box-shadow: 0 0 30px rgba(255, 20, 147, 0.7);

    }

    

    #quantumStats {

      position: fixed;

      top: 20px;

      left: 20px;

      color: white;

      background: rgba(0, 0, 0, 0.5);

      padding: 10px;

      border-radius: 5px;

      z-index: 20;

      font-size: 12px;

      border: 1px solid var(--quantum-blue);

    }

    

    .entanglement-link {

      position: absolute;

      height: 2px;

      background: linear-gradient(to right, 

        rgba(138, 43, 226, 0.3), 

        rgba(64, 224, 208, 0.7));

      transform-origin: 0 0;

      z-index: 2;

      transition: all 0.5s;

    }

    

    .dimension-indicator {

      position: fixed;

      top: 20px;

      right: 20px;

      color: white;

      background: rgba(0, 0, 0, 0.5);

      padding: 10px;

      border-radius: 5px;

      z-index: 20;

      font-size: 12px;

      border: 1px solid var(--quantum-pink);

    }

    

    .superposition {

      position: absolute;

      width: 100%;

      height: 100%;

      z-index: 1;

      opacity: 0.3;

      mix-blend-mode: lighten;

    }

  </style>

</head>

<body>

  <canvas id="quantumField"></canvas>

  

  <div class="superposition" id="superposition"></div>

  

  <div id="particlesContainer">

    <!-- Quantum particles will be added by JavaScript -->

  </div>

  

  <div id="linksContainer">

    <!-- Entanglement links will be added by JavaScript -->

  </div>

  

  <div id="wavesContainer">

    <!-- Probability waves will be added by JavaScript -->

  </div>

  

  <div id="quantumPortal">

    <div id="portalTitle">Quantum Portal</div>

    <iframe id="portalIframe" sandbox="allow-same-origin allow-scripts allow-popups allow-forms"></iframe>

  </div>

  

  <div id="quantumControls">

    <div class="quantum-btn" id="collapseBtn">⚛️</div>

    <div class="quantum-btn" id="entangleBtn">🔗</div>

    <div class="quantum-btn" id="shiftDimensionBtn">🌌</div>

  </div>

  

  <div id="quantumStats">

    Particles: <span id="particleCount">0</span> | 

    Entanglements: <span id="entanglementCount">0</span> | 

    Certainty: <span id="certainty">0%</span>

  </div>

  

  <div class="dimension-indicator">

    Dimension: <span id="dimension">0</span>

  </div>


  <script>

    // Quantum parameters

    const PARTICLE_COUNT = 5;

    const MAX_ENTANGLEMENTS = 10;

    const DIMENSION_COUNT = 3;

    const COLLAPSE_RADIUS = 150;

    

    // Quantum sites with different properties

    const quantumSites = [

      { url: 'https://advertica13.blogspot.com/', title: 'Quantum Blog', color: 'var(--quantum-purple)', type: 'blog' },

      { url: 'https://advertica12.blogspot.com/', title: 'Superposition News', color: 'var(--quantum-blue)', type: 'news' },

      { url: 'https://www.softmod.shop/', title: 'Entangled Store', color: 'var(--quantum-pink)', type: 'shop' },

      { url: 'https://example.com/tech', title: 'Qubit Tech', color: 'var(--quantum-teal)', type: 'tech' },

      { url: 'https://example.com/forum', title: 'Observer Forum', color: '#ff8c00', type: 'social' }

    ];

    

    // DOM elements

    const quantumField = document.getElementById('quantumField');

    const ctx = quantumField.getContext('2d');

    const particlesContainer = document.getElementById('particlesContainer');

    const linksContainer = document.getElementById('linksContainer');

    const wavesContainer = document.getElementById('wavesContainer');

    const superposition = document.getElementById('superposition');

    const quantumPortal = document.getElementById('quantumPortal');

    const portalIframe = document.getElementById('portalIframe');

    const portalTitle = document.getElementById('portalTitle');

    const collapseBtn = document.getElementById('collapseBtn');

    const entangleBtn = document.getElementById('entangleBtn');

    const shiftDimensionBtn = document.getElementById('shiftDimensionBtn');

    const particleCount = document.getElementById('particleCount');

    const entanglementCount = document.getElementById('entanglementCount');

    const certainty = document.getElementById('certainty');

    const dimension = document.getElementById('dimension');

    

    // Quantum state

    let particles = [];

    let entanglements = [];

    let waves = [];

    let currentDimension = 0;

    let currentCertainty = 0;

    let activeParticle = null;

    let collapseInProgress = false;

    

    // Canvas setup

    quantumField.width = window.innerWidth;

    quantumField.height = window.innerHeight;

    

    // Initialize the quantum field

    function initQuantumField() {

      clearQuantumField();

      

      // Create particles in superposition

      for (let i = 0; i < PARTICLE_COUNT; i++) {

        createParticleInSuperposition();

      }

      

      // Create some initial entanglements

      createRandomEntanglements(3);

      

      updateStats();

      renderSuperposition();

    }

    

    // Clear the quantum field

    function clearQuantumField() {

      particlesContainer.innerHTML = '';

      linksContainer.innerHTML = '';

      wavesContainer.innerHTML = '';

      particles = [];

      entanglements = [];

      waves = [];

      activeParticle = null;

    }

    

    // Create a particle in superposition

    function createParticleInSuperposition() {

      const x = Math.random() * (quantumField.width - 200) + 100;

      const y = Math.random() * (quantumField.height - 200) + 100;

      const site = quantumSites[Math.floor(Math.random() * quantumSites.length)];

      

      const particle = {

        id: particles.length,

        x: x,

        y: y,

        collapsed: false,

        site: site,

        possibleStates: generatePossibleStates(site),

        currentState: null,

        element: null,

        dimension: currentDimension

      };

      

      particles.push(particle);

      

      // Create probability waves

      createProbabilityWaves(particle);

      

      return particle;

    }

    

    // Generate possible states for a particle

    function generatePossibleStates(mainSite) {

      const states = [mainSite];

      

      // Add 2-3 alternative states

      const alternativeCount = 2 + Math.floor(Math.random() * 2);

      const otherSites = quantumSites.filter(s => s !== mainSite);

      

      for (let i = 0; i < alternativeCount; i++) {

        const randomSite = otherSites[Math.floor(Math.random() * otherSites.length)];

        if (!states.some(s => s.url === randomSite.url)) {

          states.push(randomSite);

        }

      }

      

      return states;

    }

    

    // Create probability waves for a particle

    function createProbabilityWaves(particle) {

      const waveColors = ['#8a2be2', '#00bfff', '#ff1493', '#40e0d0'];

      

      particle.possibleStates.forEach((state, index) => {

        const wave = document.createElement('div');

        wave.className = 'quantum-wave';

        wave.style.width = `${COLLAPSE_RADIUS * 2}px`;

        wave.style.height = `${COLLAPSE_RADIUS * 2}px`;

        wave.style.left = `${particle.x - COLLAPSE_RADIUS}px`;

        wave.style.top = `${particle.y - COLLAPSE_RADIUS}px`;

        wave.style.backgroundColor = waveColors[index % waveColors.length];

        wave.style.animationDelay = `${index * 0.5}s`;

        wave.dataset.particleId = particle.id;

        wave.dataset.stateIndex = index;

        

        wavesContainer.appendChild(wave);

        waves.push(wave);

      });

    }

    

    // Collapse a particle's wave function

    function collapseParticle(particle) {

      if (particle.collapsed || collapseInProgress) return;

      

      collapseInProgress = true;

      

      // Remove probability waves

      waves.filter(w => w.dataset.particleId == particle.id).forEach(w => {

        w.style.transition = 'opacity 1s';

        w.style.opacity = '0';

        setTimeout(() => w.remove(), 1000);

      });

      

      // Select a random state based on probability

      const randomVal = Math.random();

      let selectedIndex = 0;

      

      // Simple probability distribution (first state more likely)

      if (randomVal < 0.6) {

        selectedIndex = 0;

      } else if (randomVal < 0.85) {

        selectedIndex = 1;

      } else {

        selectedIndex = 2;

      }

      

      // Make sure we don't exceed possible states

      selectedIndex = Math.min(selectedIndex, particle.possibleStates.length - 1);

      

      particle.currentState = particle.possibleStates[selectedIndex];

      particle.collapsed = true;

      

      // Create the collapsed particle element

      const el = document.createElement('div');

      el.className = 'quantum-particle collapsed';

      el.id = `particle-${particle.id}`;

      el.style.left = `${particle.x - 40}px`;

      el.style.top = `${particle.y - 40}px`;

      el.style.color = particle.currentState.color;

      

      el.innerHTML = `

        <iframe src="${particle.currentState.url}" 

                sandbox="allow-same-origin allow-scripts allow-popups allow-forms"></iframe>

        <div class="particle-label">${particle.currentState.title}</div>

      `;

      

      el.addEventListener('click', (e) => {

        e.stopPropagation();

        activateParticle(particle);

      });

      

      particlesContainer.appendChild(el);

      particle.element = el;

      

      // Increase certainty

      currentCertainty = Math.min(100, currentCertainty + 20);

      updateStats();

      

      // Entangle with nearby particles

      setTimeout(() => {

        entangleNearbyParticles(particle);

        collapseInProgress = false;

      }, 500);

    }

    

    // Activate a particle (show in portal)

    function activateParticle(particle) {

      if (!particle.collapsed) return;

      

      portalIframe.src = particle.currentState.url;

      portalTitle.textContent = particle.currentState.title;

      quantumPortal.classList.add('active');

      

      // Highlight active particle

      particles.forEach(p => {

        if (p.element) p.element.classList.remove('collapsed');

      });

      particle.element.classList.add('collapsed');

      activeParticle = particle;

    }

    

    // Create random entanglements

    function createRandomEntanglements(count) {

      for (let i = 0; i < count && entanglements.length < MAX_ENTANGLEMENTS; i++) {

        const collapsedParticles = particles.filter(p => p.collapsed);

        if (collapsedParticles.length >= 2) {

          const fromIndex = Math.floor(Math.random() * collapsedParticles.length);

          let toIndex;

          

          do {

            toIndex = Math.floor(Math.random() * collapsedParticles.length);

          } while (toIndex === fromIndex);

          

          createEntanglement(collapsedParticles[fromIndex], collapsedParticles[toIndex]);

        }

      }

    }

    

    // Create entanglement between two particles

    function createEntanglement(particleA, particleB) {

      const exists = entanglements.some(e => 

        (e.from === particleA.id && e.to === particleB.id) ||

        (e.from === particleB.id && e.to === particleA.id)

      );

      

      if (!exists) {

        const entanglement = {

          id: entanglements.length,

          from: particleA.id,

          to: particleB.id,

          element: null

        };

        

        entanglements.push(entanglement);

        updateEntanglementElement(entanglement);

      }

    }

    

    // Update entanglement visual element

    function updateEntanglementElement(entanglement) {

      // Remove existing element if any

      if (entanglement.element) {

        entanglement.element.remove();

      }

      

      const fromParticle = particles.find(p => p.id === entanglement.from);

      const toParticle = particles.find(p => p.id === entanglement.to);

      

      if (fromParticle && fromParticle.collapsed && 

          toParticle && toParticle.collapsed) {

        

        const el = document.createElement('div');

        el.className = 'entanglement-link';

        

        const dx = toParticle.x - fromParticle.x;

        const dy = toParticle.y - fromParticle.y;

        const length = Math.sqrt(dx * dx + dy * dy);

        const angle = Math.atan2(dy, dx);

        

        el.style.width = `${length}px`;

        el.style.left = `${fromParticle.x}px`;

        el.style.top = `${fromParticle.y}px`;

        el.style.transform = `rotate(${angle}rad)`;

        el.style.opacity = Math.min(0.7, 200 / length);

        

        linksContainer.appendChild(el);

        entanglement.element = el;

      }

    }

    

    // Entangle with nearby particles

    function entangleNearbyParticles(particle) {

      particles.forEach(otherParticle => {

        if (otherParticle !== particle && otherParticle.collapsed) {

          const dx = otherParticle.x - particle.x;

          const dy = otherParticle.y - particle.y;

          const distance = Math.sqrt(dx * dx + dy * dy);

          

          if (distance < 300 && Math.random() > 0.7) {

            createEntanglement(particle, otherParticle);

          }

        }

      });

      

      updateStats();

    }

    

    // Collapse nearby particles

    function collapseNearbyParticles() {

      if (!activeParticle) return;

      

      particles.forEach(particle => {

        if (!particle.collapsed) {

          const dx = particle.x - activeParticle.x;

          const dy = particle.y - activeParticle.y;

          const distance = Math.sqrt(dx * dx + dy * dy);

          

          if (distance < COLLAPSE_RADIUS * 2) {

            setTimeout(() => {

              collapseParticle(particle);

            }, Math.random() * 1000);

          }

        }

      });

    }

    

    // Shift to another dimension

    function shiftDimension() {

      currentDimension = (currentDimension + 1) % DIMENSION_COUNT;

      dimension.textContent = currentDimension;

      

      // Reset certainty when changing dimensions

      currentCertainty = 0;

      updateStats();

      

      // Reinitialize the field with new superpositions

      initQuantumField();

    }

    

    // Render superposition effect

    function renderSuperposition() {

      superposition.style.background = `radial-gradient(circle at ${Math.random() * 100}% ${Math.random() * 100}%, 

        rgba(138, 43, 226, 0.1), 

        rgba(0, 191, 255, 0.1), 

        rgba(255, 20, 147, 0.1), 

        rgba(64, 224, 208, 0.1))`;

    }

    

    // Update statistics

    function updateStats() {

      particleCount.textContent = particles.filter(p => p.collapsed).length;

      entanglementCount.textContent = entanglements.length;

      certainty.textContent = `${currentCertainty}%`;

    }

    

    // Event listeners

    collapseBtn.addEventListener('click', collapseNearbyParticles);

    entangleBtn.addEventListener('click', () => createRandomEntanglements(2));

    shiftDimensionBtn.addEventListener('click', shiftDimension);

    

    // Close portal when clicking outside

    document.addEventListener('click', (e) => {

      if (!quantumPortal.contains(e.target)) {

        quantumPortal.classList.remove('active');

        particles.forEach(p => {

          if (p.element) p.element.classList.remove('collapsed');

        });

        activeParticle = null;

      }

    });

    

    // Handle window resize

    window.addEventListener('resize', () => {

      quantumField.width = window.innerWidth;

      quantumField.height = window.innerHeight;

    });

    

    // Initialize

    initQuantumField();

    

    // Background animation

    function animateBackground() {

      ctx.fillStyle = 'rgba(0, 5, 15, 0.05)';

      ctx.fillRect(0, 0, quantumField.width, quantumField.height);

      

      // Draw quantum interference pattern

      ctx.strokeStyle = 'rgba(64, 224, 208, 0.02)';

      ctx.lineWidth = 1;

      

      const size = 50;

      for (let x = 0; x < quantumField.width; x += size) {

        for (let y = 0; y < quantumField.height; y += size) {

          ctx.beginPath();

          ctx.arc(x, y, 2 + Math.sin(Date.now() * 0.001 + x * 0.01 + y * 0.01) * 2, 0, Math.PI * 2);

          ctx.stroke();

        }

      }

      

      requestAnimationFrame(animateBackground);

    }

    

    animateBackground();

  </script>

</body>

</html>

```


### Key Features of This Quantum Web Explorer:


1. **Quantum Superposition Interface**:

   - Websites exist as probability waves before observation

   - Collapse waveforms to reveal actual sites

   - Multiple possible states for each "particle"


2. **Quantum Entanglement**:

   - Connected sites influence each other

   - Visual links show entangled particles

   - Changes propagate through the quantum network


3. **Multi-Dimensional Browsing**:

   - Shift between parallel browsing dimensions

   - Each dimension has different quantum states

   - Reset certainty when changing dimensions


4. **Visual Quantum Effects**:

   - Rippling probability waves

   - Particle-wave duality visualization

   - Entanglement links with gradient colors

   - Pulsing glow for collapsed states


5. **Interactive Controls**:

   - Collapse nearby wave functions

   - Create new entanglements

   - Shift between dimensions

   - Portal for focused viewing


6. **Quantum Statistics**:

   - Particle collapse count

   - Entanglement connections

   - Certainty percentage

   - Current dimension indicator


This implementation creates a completely unique way to explore the web through the lens of quantum physics principles. The probabilistic nature of the interface encourages discovery and creates an organic, emergent browsing experience where sites exist in multiple possible states until observed.


Additional features you could add:

- Quantum tunneling between sites

- Observer effect visualizations

- Quantum interference patterns

- Spin states for particles

- Measurement uncertainty indicators

- Sound effects for quantum events

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