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Quantum MLHybrid ComputingOptimization
Quantum-Assisted ML for Next-Generation Networks
As classical machine learning approaches fundamental limits in training cost and optimization complexity, quantum computing offers a promising complement through superposition, entanglement, and quantum parallelism. This project investigates hybrid quantum-classical learning pipelines that embed variational quantum circuits into classical ML workflows to address large-scale optimization, feature encoding, and resource allocation problems arising in wireless networks and edge intelligence.
Research Objectives
- Design variational quantum circuits (VQCs) for classification and regression tasks on edge-scale datasets
- Develop hybrid quantum-classical optimizers for resource allocation in 6G and edge networks
- Benchmark quantum kernel methods against classical counterparts for feature-rich wireless data
- Investigate noise-resilient training strategies suitable for near-term NISQ hardware
Methods & Techniques
- Variational Quantum Eigensolver (VQE) and QAOA for combinatorial network optimization
- Parameterized quantum circuits trained with parameter-shift gradients
- Quantum kernel estimation for support vector machines
- Hybrid pipelines combining PennyLane/Qiskit simulators with classical deep learning frameworks
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