A comprehensive collection of 100 quantum computing implementations from beginner to expert level
- π Purpose
- π― Learning Path
- π Project Levels
- π οΈ Installation
- π» Quick Start
- π Project Structure
- π¬ Features
- π€ Contributing
- π License
This repository provides a complete hands-on learning path for quantum computing, featuring 100 progressively challenging projects that take you from quantum basics to expert-level implementations. Perfect for students, researchers, and developers looking to master quantum computing through practical implementation.
| Stage | Level | Focus Area | Skills Developed |
|---|---|---|---|
| π’ Foundation | Beginner (1-25) | Single Qubit Operations | State manipulation, gates, measurement |
| π΅ Core | Intermediate (26-50) | Multi-Qubit Systems | Entanglement, algorithms, circuits |
| π£ Advanced | Advanced (51-75) | Quantum Algorithms | ML, optimization, error correction |
| π΄ Expert | Expert (76-100) | Quantum Systems | Hardware, compilation, networks |
| # | Project | Description | Key Skills |
|---|---|---|---|
| 1 | Single Qubit State Simulator | Create | 0β© and |
| 2 | Basic Gate Applier | Apply X, H gates | Gate operations |
| 3 | Bloch Sphere Calculator | 3D qubit visualization | Geometric representation |
| 4 | Quantum Measurement Simulator | Simulate quantum collapse | Probability theory |
| 5 | Probability Distribution Plotter | Visualize probabilities | Data visualization |
| 6 | Superposition Creator | Create equal superpositions | Hadamard gate |
| 7 | Quantum Random Bit Generator | True random numbers | Quantum randomness |
| 8 | State Vector Normalizer | Maintain proper states | Vector mathematics |
| 9 | Basis State Converter | Change between bases | Basis transformations |
| 10 | Gate Matrix Maker | Common gate matrices | Linear algebra |
| 11 | Quantum Circuit Drawer | Draw circuit diagrams | Circuit visualization |
| 12 | Gate Sequence Simulator | Apply multiple gates | Sequential operations |
| 13 | Phase Shift Demonstrator | Show phase effects | Phase understanding |
| 14 | Quantum State Comparator | Compare two states | State similarity |
| 15 | Amplitude Visualizer | Plot real/imaginary parts | Complex numbers |
| 16 | State Saver/Loader | Save/load states | Data persistence |
| 17 | Basic Entanglement Checker | Check entanglement | Quantum correlation |
| 18 | Quantum Truth Table Generator | Gate truth tables | Logical operations |
| 19 | Gate Inverse Finder | Find reverse operations | Matrix inverses |
| 20 | No-Cloning Demonstrator | Show no-cloning theorem | Quantum principles |
| 21 | Expectation Value Calculator | Calculate averages | Quantum measurements |
| 22 | Quantum Variance Calculator | Find measurement spread | Statistics |
| 23 | State Fidelity Calculator | Measure similarity | State comparison |
| 24 | Quantum Purity Checker | Check pure/mixed states | Density matrices |
| 25 | Basic Decoherence Simulator | Simulate quantum noise | Real-world effects |
| # | Project | Description | Key Skills |
|---|---|---|---|
| 26 | Multi-Qubit State Simulator | Handle 2-5 qubit systems | Multi-qubit states |
| 27 | Tensor Product Calculator | Combine states and operators | Tensor products |
| 28 | CNOT Gate Implementer | Create controlled-NOT gate | Entanglement gates |
| 29 | Bell State Generator | Create all four entangled states | Bell states |
| 30 | Entanglement Verification Tool | Prove states are entangled | Entanglement measures |
| 31 | Quantum Teleportation Simulator | Send quantum state remotely | Quantum communication |
| 32 | Superdense Coding Simulator | Send 2 bits with 1 qubit | Information theory |
| 33 | Quantum Swap Test | Compare states | State similarity |
| 34 | Deutsch Algorithm | Solve oracle problem | Quantum parallelism |
| 35 | Deutsch-Jozsa Algorithm | Extended version for n qubits | Algorithm scaling |
| 36 | Bernstein-Vazirani Algorithm | Find hidden string | Oracle problems |
| 37 | Quantum Fourier Transform | Quantum version of FFT | Signal processing |
| 38 | Quantum Phase Estimation | Estimate phase of unitary | Phase estimation |
| 39 | Simple Grover's Search | Search unstructured database | Quantum search |
| 40 | Quantum Oracle Builder | Create marking functions | Oracle design |
| 41 | Quantum Arithmetic Unit | Do math with quantum circuits | Quantum arithmetic |
| 42 | Quantum Comparator | Compare two numbers | Quantum logic |
| 43 | Quantum Memory Simulator | Store classical data | Quantum memory |
| 44 | State Preparation Tool | Create arbitrary states | State synthesis |
| 45 | Quantum Circuit Optimizer | Simplify circuits | Circuit optimization |
| 46 | Gate Decomposition Tool | Break complex gates | Gate decomposition |
| 47 | Circuit Equivalence Checker | Verify circuit equivalence | Circuit verification |
| 48 | Quantum Assembly Interpreter | Run quantum assembly code | Quantum programming |
| 49 | Resource Estimator | Count qubits and gates | Resource analysis |
| 50 | Algorithm Benchmarker | Compare algorithm performance | Performance analysis |
| # | Project | Description | Key Skills |
|---|---|---|---|
| 51 | Simon's Algorithm | Find hidden period | Period finding |
| 52 | Quantum Counting | Count solutions | Solution counting |
| 53 | Quantum Minimum Finder | Find minimum value | Optimization |
| 54 | Quantum Classifier | Basic quantum machine learning | Quantum ML |
| 55 | Quantum Neural Network | Implement simple QNN | Quantum neural networks |
| 56 | Variational Quantum Eigensolver | Find molecular ground states | Quantum chemistry |
| 57 | Quantum Approximate Optimization | Solve optimization problems | QAOA |
| 58 | Quantum Support Vector Machine | Quantum version of SVM | Classification |
| 59 | Quantum Principal Component Analysis | Dimensionality reduction | Quantum PCA |
| 60 | Quantum Generative Model | Generate data using quantum circuits | Generative models |
| 61 | Quantum Autoencoder | Compress quantum information | Compression |
| 62 | Quantum Boltzmann Machine | Quantum version of Boltzmann machine | Sampling |
| 63 | Quantum Reinforcement Learning | Q-learning with quantum enhancements | Reinforcement learning |
| 64 | Quantum Natural Gradient | Better optimization | Optimization methods |
| 65 | Quantum Feature Map Designer | Create custom feature maps | Feature engineering |
| 66 | Quantum Kernel Estimator | Estimate quantum kernel functions | Kernel methods |
| 67 | Quantum Model Trainer | Train variational quantum circuits | Model training |
| 68 | Quantum Gradient Calculator | Compute gradients | Gradient computation |
| 69 | Quantum Circuit Learning | Full circuit learning framework | End-to-end learning |
| 70 | Quantum Data Loader | Encode classical data | Data encoding |
| 71 | Quantum Image Processor | Basic quantum image representation | Image processing |
| 72 | Quantum Signal Processor | Process signals using quantum methods | Signal processing |
| 73 | Quantum Game Theory | Implement quantum game scenarios | Game theory |
| 74 | Quantum Cryptography Simulator | Simulate BB84 protocol | Cryptography |
| 75 | Quantum Error Correction Code | Implement basic error correction | Error correction |
| # | Project | Description | Key Skills |
|---|---|---|---|
| 76 | Surface Code Simulator | Simulate topological quantum code | Topological codes |
| 77 | Quantum Compiler | Compile high-level operations | Compilation |
| 78 | Quantum Transpiler | Adapt circuits for hardware | Hardware adaptation |
| 79 | Noise Model Simulator | Simulate various noise types | Noise simulation |
| 80 | Error Mitigation Techniques | Reduce errors without correction | Error mitigation |
| 81 | Zero-Noise Extrapolation | Extrapolate to zero noise | Extrapolation methods |
| 82 | Probabilistic Error Cancellation | Cancel errors using probability | Error cancellation |
| 83 | Quantum Volume Calculator | Calculate quantum volume | Benchmarking |
| 84 | Cross-Entropy Benchmarking | Benchmark quantum processors | Hardware benchmarking |
| 85 | Randomized Benchmarking | Characterize gate errors | Gate characterization |
| 86 | Quantum Control Pulse Simulator | Simulate physical control pulses | Control systems |
| 87 | Quantum Optimal Control | Optimize control pulses | Optimal control |
| 88 | Quantum Circuit Synthesis | Synthesize circuits from unitaries | Circuit synthesis |
| 89 | Quantum Architecture Search | Search for optimal circuit designs | Architecture search |
| 90 | Quantum Memory Manager | Manage quantum memory resources | Memory management |
| 91 | Distributed Quantum Computing | Simulate multiple quantum processors | Distributed systems |
| 92 | Quantum Network Simulator | Simulate quantum internet | Networking |
| 93 | Quantum Internet Protocols | Implement network protocols | Protocol design |
| 94 | Quantum Serverless Framework | Simulate quantum cloud computing | Cloud computing |
| 95 | Quantum Operating System | Basic quantum OS concepts | Operating systems |
| 96 | Quantum Programming Language | Design simple quantum language | Language design |
| 97 | Quantum Verification Tools | Verify quantum program correctness | Verification |
| 98 | Quantum Security Analyzer | Analyze cryptographic security | Security analysis |
| 99 | Quantum Advantage Demonstrator | Show quantum advantage cases | Quantum advantage |
| 100 | Full Quantum Stack Simulator | Complete quantum computing simulation | Full-stack development |
- Python 3.8 or higher
- Basic understanding of linear algebra and quantum mechanics
# Clone the repository
git clone https://github.com/dronabopche/100-Quantum-Project.git
cd 100-Quantum-Project
# Create virtual environment
python -m venv quantum_env
source quantum_env/bin/activate # Linux/Mac
# OR
quantum_env\Scripts\activate # Windows
# Install dependencies
pip install -r requirements.txtpip install numpy matplotlib scipy jupyterfrom beginner.single_qubit import Qubit
# Create and manipulate a qubit
qubit = Qubit()
print(f"Initial state: {qubit.state}")
# Apply Hadamard gate to create superposition
qubit.h_gate()
print(f"After H gate: {qubit.state}")
# Measure the qubit
result = qubit.measure()
print(f"Measurement result: {result}")from intermediate.quantum_circuit import QuantumCircuit
# Create a 2-qubit circuit
qc = QuantumCircuit(2)
# Apply gates
qc.h(0) # Hadamard on qubit 0
qc.cx(0, 1) # CNOT between qubit 0 and 1
# Simulate and get results
state = qc.simulate()
print(f"Final state: {state}")from advanced.grover_search import Grover
# Search for element '11' in 2-qubit space
grover = Grover(2, target='11')
result = grover.search()
print(f"Found solution with probability: {result['probability']}")quantum-computing-suite/
β
βββ beginner/ # Levels 1-25
β βββ single_qubit/ # Single qubit operations
β βββ basic_gates/ # Quantum gates
β βββ visualization/ # State visualization
β βββ measurement/ # Measurement simulations
β
βββ intermediate/ # Levels 26-50
β βββ multi_qubit/ # Multi-qubit systems
β βββ entanglement/ # Entanglement operations
β βββ algorithms/ # Basic algorithms
β βββ circuits/ # Circuit design
β
βββ advanced/ # Levels 51-75
β βββ quantum_ml/ # Quantum machine learning
β βββ optimization/ # Optimization algorithms
β βββ error_correction/ # Error correction
β βββ applications/ # Real-world applications
β
βββ expert/ # Levels 76-100
β βββ hardware/ # Hardware simulation
β βββ compilation/ # Compiler and transpiler
β βββ networks/ # Quantum networks
β βββ systems/ # Quantum systems
β
βββ examples/ # Usage examples
βββ tests/ # Test suites
βββ docs/ # Documentation
βββ utils/ # Common utilities
βββ quantum_math.py # Math utilities
βββ visualization.py # Plotting functions
βββ helpers.py Helper functions
- Bloch Sphere: 3D qubit state visualization
- Circuit Diagrams: Text-based and graphical circuit representation
- Probability Plots: Bar charts and histograms for measurement outcomes
- State Evolution: Animated state transformations
- Perfect Simulation: Noiseless quantum computation
- Noise Models: Depolarizing, amplitude damping, phase damping
- Error Correction: Various quantum error correction codes
- Hardware Simulation: Specific quantum processor models
- Algorithm Benchmarking: Performance comparison
- Resource Estimation: Qubit and gate counts
- Fidelity Calculation: State and process fidelity
- Complexity Analysis: Time and space requirements
- Modular Design: Easy to extend and modify
- Comprehensive Testing: Unit tests for all components
- Documentation: Detailed explanations and examples
- API Reference: Clean, well-documented code
We welcome contributions from the quantum computing community! Here's how you can help:
- Implement New Projects: Add missing quantum algorithms
- Improve Documentation: Enhance explanations and examples
- Optimize Code: Improve performance and efficiency
- Add Tests: Expand test coverage
- Fix Bugs: Identify and resolve issues
- Fork the repository
- Create a feature branch (
git checkout -b feature/amazing-feature) - Commit your changes (
git commit -m 'Add amazing feature') - Push to the branch (
git push origin feature/amazing-feature) - Open a Pull Request
- Follow PEP 8 style guide
- Include docstrings for all functions
- Write unit tests for new features
- Update documentation accordingly
This project is licensed under the North Eastern Hill University License - see the LICENSE file for details.
If you find this project helpful, please give it a βοΈ on GitHub!
Happy Quantum Coding! π
"If you think you understand quantum mechanics, you don't understand quantum mechanics." - Richard Feynman