Physics-inspired Machine Learning for Quantum Error Mitigation

• URL: http://arxiv.org/abs/2501.04558v1
• Date: Wed, 08 Jan 2025 15:07:48 GMT
• Title: Physics-inspired Machine Learning for Quantum Error Mitigation
• Authors: Xiao-Yue Xu, Xin Xue, Tianyu Chen, Chen Ding, Tian Li, Haoyi Zhou, He-Liang Huang, Wan-Su Bao,
• Abstract summary: We introduce the Neural Noise Accumulation Surrogate (NNAS), a physics-inspired neural network for Machine Learning for Quantum Error Mitigation (ML-QEM)<n>NNAS incorporates the structural characteristics of quantum noise accumulation within multi-layer circuits, endowing the model with physical interpretability.<n>For deeper circuits where QEM methods typically struggle, NNAS achieves a remarkable reduction of over half in errors.
• Score: 15.243176527806126
• License: http://creativecommons.org/licenses/by/4.0/
• Abstract: Noise is a major obstacle in current quantum computing, and Machine Learning for Quantum Error Mitigation (ML-QEM) promises to address this challenge, enhancing computational accuracy while reducing the sampling overheads of standard QEM methods. Yet, existing models lack physical interpretability and rely heavily on extensive datasets, hindering their scalability in large-scale quantum circuits. To tackle these issues, we introduce the Neural Noise Accumulation Surrogate (NNAS), a physics-inspired neural network for ML-QEM that incorporates the structural characteristics of quantum noise accumulation within multi-layer circuits, endowing the model with physical interpretability. Experimental results demonstrate that NNAS outperforms current methods across a spectrum of metrics, including error mitigation capability, quantum resource consumption, and training dataset size. Notably, for deeper circuits where QEM methods typically struggle, NNAS achieves a remarkable reduction of over half in errors. NNAS also demands substantially fewer training data, reducing dataset reliance by at least an order of magnitude, due to its ability to rapidly capture noise accumulation patterns across circuit layers. This work pioneers the integration of quantum process-derived structural characteristics into neural network architectures, broadly enhancing QEM's performance and applicability, and establishes an integrative paradigm that extends to various quantum-inspired neural network architectures.

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