用于容错架构的量子电路的设计与实现

Konstantinos Prousalis, Nikos Konofaos
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引用次数: 0

摘要

量子计算的电路模型是实现量子计算机计算演化的高级表示的最常用方法。通过使用已经提出的软件工具,描述了不同体系结构的设计和实现过程。测试了该工具的效用和效力。一些有代表性的例子展示了它如何实际有助于量子电路的实现。某些设施可能加快实施进程。通过包含辅助编码电路开销,逻辑电路的实现可以自动转换为容错电路。支持不同的设计技术,并且可以包括恢复机制。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Design and implementation of quantum circuits for fault-tolerant architectures
The circuit model of quantum computation is the most common way to achieve a high-level representation of the computing evolution in a quantum computer. By using an already proposed software tool, the design and implementation processes are described for different architectures. The utility and potency of this tool is tested. Some representative examples are demonstrated to depict how it actually contributes to the implementation of a quantum circuit. Particular facilities may speedup the implementation process. A logic circuit's implementation can be automatically transformed into a fault-tolerant one by including the auxiliary encoding circuit overhead. Different design techniques are supported and recovery mechanisms can be included.
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