https://github.com/rajtilak-2020/quantum-coin-flip
Interactive Quantum Coin Flip simulator demonstrating quantum principles like superposition and quantum gates. The project uses HTML, CSS, and JavaScript with the Quantum Circuit library for quantum operations. Explore the concept of quantum mechanics through a fun and engaging coin flip animation!
https://github.com/rajtilak-2020/quantum-coin-flip
Last synced: 3 months ago
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Interactive Quantum Coin Flip simulator demonstrating quantum principles like superposition and quantum gates. The project uses HTML, CSS, and JavaScript with the Quantum Circuit library for quantum operations. Explore the concept of quantum mechanics through a fun and engaging coin flip animation!
- Host: GitHub
- URL: https://github.com/rajtilak-2020/quantum-coin-flip
- Owner: rajtilak-2020
- License: mit
- Created: 2024-12-31T07:30:42.000Z (5 months ago)
- Default Branch: main
- Last Pushed: 2024-12-31T07:46:46.000Z (5 months ago)
- Last Synced: 2024-12-31T08:25:31.531Z (5 months ago)
- Language: JavaScript
- Homepage: https://rajtilak-2020.github.io/Quantum-coin-flip/
- Size: 0 Bytes
- Stars: 0
- Watchers: 1
- Forks: 0
- Open Issues: 0
-
Metadata Files:
- Readme: README.MD
- License: LICENSE
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README
# 🌌 Quantum Coin Flip
### 🎲 A Fun and Visual Dive Into Quantum Computing Principles
> Explore the mind-bending world of quantum mechanics through an interactive coin flip simulation!
---
## 📖 **Overview**
This project demonstrates quantum computing concepts using a simple, engaging coin flip simulation. Unlike a regular coin toss, our quantum coin exists in multiple states until measured, showcasing the magic of **quantum superposition**.
---
## 🛠️ **How It Works**
Quantum computing differs from classical computing by leveraging the peculiarities of quantum mechanics. Here's how the Quantum Coin Flip works:
1️⃣ **Initialize:** Start with a qubit in state **|0⟩** (akin to a classical coin starting heads up).
2️⃣ **Apply Hadamard Gate:** Enter superposition—a state where the coin is both **heads and tails** simultaneously.
3️⃣ **Measure:** Observe the qubit. Measurement "collapses" the superposition into a single outcome, just like flipping a coin.
---
## 🎛️ **Quantum Gates & Applications**
### **🌀 Hadamard (H) Gate**
**Creates Superposition**
- Transforms |0⟩ into a mix of |0⟩ and |1⟩.
- **🔮 Future Use:** Quantum Machine Learning could analyze all solutions simultaneously, potentially discovering new drugs millions of times faster.
### **🔄 X Gate (NOT)**
**Flips the Qubit**
- Switches the state from |0⟩ to |1⟩ or vice versa.
- **🔮 Future Use:** Quantum Error Correction in fault-tolerant quantum computers, crucial for quantum internet infrastructure.
### **⚡ Z Gate**
**Applies Phase Shift**
- Adds a phase difference between quantum states.
- **🔮 Future Use:** Quantum Cryptography could make secure communications completely unhackable.
### **🔗 CNOT Gate**
**Controls Quantum Interactions**
- A two-qubit gate enabling conditional operations.
- **🔮 Future Use:** Quantum Simulations could revolutionize material science for advanced solar panels and superconductors.
### **♻️ Toffoli Gate**
**Enables Reversible Computing**
- A three-qubit gate for complex operations.
- **🔮 Future Use:** Climate modeling with unprecedented accuracy, processing vast amounts of data.
---
## 🎥 **Interactive Features**
- **🎬 Animated Circuit Diagrams:** See the Hadamard Gate and parallel quantum states in action.
- **✨ Quantum Glitch Effects:** Visualize the randomness and duality of quantum states.
- **📊 Measurement Visuals:** Observe the results collapse into "Heads" or "Tails."
---
## 📚 **Dependencies**
- **[Quantum Circuit Library](https://www.npmjs.com/package/quantum-circuit)** (v0.9.226) for real quantum computations.
- Modern browser with JavaScript enabled.
---
## 🌌 **What Makes This Different?**
Unlike classical random number generators, this simulation uses quantum principles:
- **True Randomness:** The Hadamard gate creates a perfect 50-50 superposition.
- **Parallel Universes:** The coin exists in **both heads and tails states** simultaneously until you measure it.
---
## 🚧 **Current Limitations**
Quantum computers today face these challenges:
- **Decoherence:** Quantum states break down over time.
- **Extreme Conditions:** Most quantum computers operate near absolute zero temperatures.
- **Limited Practical Use:** Real-world quantum computers are still in their infancy.
Scientists estimate **5-10 years** before quantum computing becomes mainstream.
---
## 🧠 **Mind-Bending Fact**
Until you measure the quantum coin, it exists in a **superposition of all possible states**—both **heads AND tails** at the same time, in parallel universes!
---
## 📄 **License**
This project is licensed under the MIT License. Feel free to use, modify, and distribute it as per the license terms.
---
### 🌈 **Enjoy Exploring Quantum Realities!**