Kui Ye;Shengxin Dai;Bing Guo;Yan Shen;Chuanjie Liu;Kejun Bi;Fei Chen;Yuchuan Hu;Mingjie Zhao
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引用次数: 0
摘要
量子电路映射(QCM)是在噪声中等规模量子(NISQ)器件上执行逻辑电路(LC)的关键预处理步骤。如何在引入额外门电路和提高预处理效率之间取得平衡,是映射过程面临的一项重大挑战。为了应对这一挑战,我们提出了相互影响感知(MIA)启发式方法,将初始映射搜索框架、初始映射生成器和启发式电路映射器整合在一起。最初,该框架利用生成器为初始映射搜索获得一个有利的起点。有了这个起点,搜索过程就能在几次双向迭代中高效地发现有希望的初始映射。电路映射器考虑了 SWAP 门的相互影响,每次迭代调用一次。最终,所有迭代的最佳结果被视为 QCM 结果。在大量基准电路上的实验结果表明,与代表当前最先进水平的迭代局部搜索(ILS)方法相比,我们的 MIA 方法引入的额外门数量相近,但执行速度却快了近 95 倍。
A Mutual-Influence-Aware Heuristic Method for Quantum Circuit Mapping
Quantum circuit mapping (QCM) is a crucial preprocessing step for executing a logical circuit (LC) on noisy intermediate-scale quantum (NISQ) devices. Balancing the introduction of extra gates and the efficiency of preprocessing poses a significant challenge for the mapping process. To address this challenge, we propose the mutual-influence-aware (MIA) heuristic method by integrating an initial mapping search framework, an initial mapping generator, and a heuristic circuit mapper. Initially, the framework utilizes the generator to obtain a favorable starting point for the initial mapping search. With this starting point, the search process can efficiently discover a promising initial mapping within a few bidirectional iterations. The circuit mapper considers mutual influences of SWAP gates and is invoked once per iteration. Ultimately, the best result from all iterations is considered the QCM outcome. The experimental results on extensive benchmark circuits demonstrate that, compared to the iterated local search (ILS) method, which represents the current state-of-the-art, our MIA method introduces a similar number of extra gates while achieving nearly 95 times faster execution.
期刊介绍:
The IEEE Transactions on Computers is a monthly publication with a wide distribution to researchers, developers, technical managers, and educators in the computer field. It publishes papers on research in areas of current interest to the readers. These areas include, but are not limited to, the following: a) computer organizations and architectures; b) operating systems, software systems, and communication protocols; c) real-time systems and embedded systems; d) digital devices, computer components, and interconnection networks; e) specification, design, prototyping, and testing methods and tools; f) performance, fault tolerance, reliability, security, and testability; g) case studies and experimental and theoretical evaluations; and h) new and important applications and trends.