用矩阵数值特性预测问题是否适合量子线性求解
Depth-Based Matrix Classification for the HHL Quantum Algorithm
- 基于矩阵数值特征构建机器学习分类器
- 多层感知机可实现高精度问题适配判断
- 训练数据分布设计决定分类效果好坏
在接近纠错量子计算时代的背景下,需评估某些后NISQ算法在实际问题中的适用性。最具前景但实现困难的算法之一是求解线性方程组的HHL算法,该算法可应用于机器学习、流体动力学等众多领域。然而,多数情况下HHL无法提供实用解。本文研究:当已知问题的数值信息时,能否通过机器学习分类器判断其是否适合HHL实现。结果表明,训练数据分布的代表性至关重要;通过精心设计的训练数据与分类器参数,多层感知机可实现准确分类。
原文摘要 · Abstract (English)
Under the nearing error-corrected era of quantum computing, it is necessary to understand the suitability of certain post-NISQ algorithms for practical problems. One of the most promising, applicable and yet difficult to implement in practical terms is the Harrow, Hassidim and Lloyd (HHL) algorithm for linear systems of equations. An enormous number of problems can be expressed as linear systems of equations, from Machine Learning to fluid dynamics. However, in most cases, HHL will not be able to provide a practical, reasonable solution to these problems. This paper's goal inquires about whether problems can be labeled using Machine Learning classifiers as suitable or unsuitable for HHL implementation when some numerical information about the problem is known beforehand. This work demonstrates that training on significantly representative data distributions is critical to achieve good classifications of the problems based on the numerical properties of the matrix representing the system of equations. Accurate classification is possible through Multi-Layer Perceptrons, although with careful design of the training data distribution and classifier parameters.
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