Low Power State Assignments by Quantum-based Genetic Algorithm

Wenbo Liu, Anping He, Ning Zhou, Xinyan Gao
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Abstract

various circuit products have been applied wider and deeper in areas in the life, but unfortunately, the power/battery technologies cannot keep up with the development of the circuit. A low power circuit with ingenious design is one of the most important considerations of the engineers, as well as the researchers. Nowadays, the low power sequential circuit is the key to circuit design, which requires an elaborate state assignment that could be synthesized as a circuit of low energy consumption and small size. That comes to a multi-objective optimization. This paper applies both the Single-gene mutation and the full gene mutation operation in seeking the optimal solution; moreover, it combines the Quantum computing with the multi-objective Genetic Algorithm to achieve an ideal assignment effectively. The experiment results show that genetic algorithm methods are more superior to others in terms of the sensitivity of original solutions and the dependency of original parameters.
基于量子遗传算法的低功耗状态分配
各种电路产品在生活的各个领域得到了越来越广泛和深入的应用,但遗憾的是,动力/电池技术并不能跟上电路的发展。设计巧妙的低功耗电路是工程师和研究人员最重要的考虑之一。目前,低功耗顺序电路是电路设计的关键,它需要一个精细的状态分配,可以合成成一个低能耗和小尺寸的电路。这是一个多目标优化。本文采用单基因突变操作和全基因突变操作寻求最优解;将量子计算与多目标遗传算法相结合,有效地实现了理想分配。实验结果表明,遗传算法方法在原始解的敏感性和原始参数的依赖性方面优于其他方法。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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