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引用次数: 51
摘要
本文介绍了层次粒子群优化算法在低功耗模拟电路自动尺寸设计中的应用及其有效性。为了比较,还采用粒子群算法和遗传算法设计了电路。从0.35µm到0.13µm的CMOS技术被使用。PVT(过程、电压、温度)变化在电路设计中被考虑。我们证明了与粒子群算法和遗传算法相比,HPSO算法收敛到一个更好的解。对于CMOS Miller OTA而言,采用HPSO算法设计的电路的均匀性能优于最近报道的人工设计电路的性能。本文还首次提出了在0.4 V电源电压下的OTA设计。对于这种新设计,在具有1.2 GHz处理器和8gb RAM的Sun系统上,HPSO算法占用了23.5分钟的CPU时间。
Low-Power Low-Voltage Analog Circuit Design Using Hierarchical Particle Swarm Optimization
This paper presents application and effectiveness of Hierarchical particle swarm optimization (HPSO) algorithm for automatic sizing of low-power analog circuits. For the purpose of comparison, circuits are also designed using PSO and Genetic Algorithm (GA). CMOS technologies from 0.35 µm down to 0.13 µm are used. PVT (process, voltage, temperature) variations are considered during the design of circuits. We show that HPSO algorithm converges to a better solution, compared to PSO and GA. For CMOS Miller OTA, even performance of the circuit designed by HPSO algorithm is better than the performance of recently reported manually designed circuit. For the first time, design of this OTA, in 0.4 V supply voltage, is also presented. For this new design, HPSO algorithm has taken 23.5 minutes of CPU time on a Sun system with1.2 GHz processor and 8 GB RAM.