为中性原子量子架构设计最优电路布局，提升执行速度与精度。
Qompose: A Technique to Select Optimal Algorithm- Specific Layout for Neutral Atom Quantum Architectures
- 根据电路特点自动选择最佳二维拓扑布局
- 在真实电路测试中实现更短执行时间与更高保真度
- 适合中性原子量子计算研究者与硬件开发者
随着量子计算架构的成熟，探索具有独特优势的新技术至关重要。本文提出 Qompose，一种面向中性原子量子架构的框架，可在二维拓扑上高效合成量子电路。Qompose 能为任意给定电路选择最优拓扑，以优化执行长度（通过高效并行）和整体保真度。大量评估表明，该方法对大量随机生成的量子电路以及真实基准测试（包括 VQE、ISING、QAOA）均有效。
原文摘要 · Abstract (English)
As quantum computing architecture matures, it is important to investigate new technologies that lend unique advantages. In this work, we propose, Qompose, a neutral atom quantum computing framework for efficiently composing quantum circuits on 2-D topologies of neutral atoms. Qompose selects an efficient topology for any given circuit in order to optimize for length of execution through efficient parallelism and for overall fidelity. our extensive evaluation demonstrates the Qompose is effective for a large collection of randomly-generated quantum circuits and a range of real-world benchmarks including VQE, ISING, and QAOA.
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