通过机器学习模型量化量子纠缠

Changchun Feng, Lin Chen
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引用次数: 0

摘要

量化具有未知密度矩阵的量子态的纠缠度量是一项艰巨的任务。机器学习为解决这一问题提供了新的视角。通过使用实验可测量数据训练机器学习模型,我们可以预测目标纠缠度量。在本研究中,我们对各种机器学习模型进行了比较,发现线性回归和堆栈模型的性能优于其他模型。我们研究了模型对不同维度量子态的影响,发现高维度量子态的结果更好。此外,我们还研究了哪些可测量数据对目标纠缠度量具有更好的预测能力。通过相关分析和主成分分析,我们证明量子矩与这些数据特征中的相干信息具有更强的相关性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Quantifying quantum entanglement via machine learning models
Quantifying entanglement measures for quantum states with unknown density matrices is a chal lenging task. Machine learning offers a new perspective to address this problem. By training machine learning models using experimentally measurable data, we can predict the target entan glement measures. In this study, we compare various machine learning models and find that the linear regression and stack models perform better than others. We investigate the model’s impact on quantum states across different dimensions and find that higher-dimensional quantum states yield better results. Additionally, we investigate which measurable data has better predictive power for target entanglement measures. Using correlation analysis and principal component analysis, we demonstrate that quantum moments exhibit a stronger correlation with coherent information among these data features.
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