A comprehensive repository implementing quantum machine learning models designed with quantum algorithms and Qiskit.
- Overview
- Models
- Installation
- Quick Start
- Quantum Random Forest Regressor
- Examples
- Requirements
- Contributing
- License
This repository contains implementations of machine learning models using quantum computing principles. The models combine quantum circuits with classical machine learning techniques to create hybrid quantum-classical algorithms.
- 🔬 Quantum Feature Mapping: Encode classical data into quantum states
- 🌳 Quantum Ensemble Methods: Implement quantum versions of ensemble learning
- 📊 Hybrid Quantum-Classical: Leverage both quantum and classical computing
- 🔄 Easy Integration: Compatible with scikit-learn API
- 📈 Performance Evaluation: Comprehensive metrics and comparisons
A quantum-enhanced version of the classical Random Forest Regressor that uses quantum kernels for feature computation and similarity measures.
Key Components:
QuantumFeatureMap: Encodes features into quantum states using angle encodingQuantumTree: Individual quantum decision tree using quantum kernelsQuantumRandomForestRegressor: Ensemble of quantum trees with bootstrap aggregating
Advantages:
- Quantum kernel-based similarity computation
- Quantum feature encoding for potentially capturing non-linear patterns
- Ensemble averaging for robust predictions
- Parameter control for quantum circuit depth
- Python 3.8 or higher
- pip or conda
- Clone the repository:
git clone https://github.com/ABHIasJerry/Quantum-Machine-Learning.git
cd Quantum-Machine-Learning