低功耗纳米cmos热传感器设计的随机梯度下降优化

Oghenekarho Okobiah, S. Mohanty, E. Kougianos, Oleg Garitselov, Geng Zheng
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引用次数: 2

摘要

对超高效和低成本便携式设备的需求继续推动对低功耗电路设计的需求。晶体管密度的增加和集成电路设计的复杂性加剧了高效低功耗和低成本设计的任务。较短的上市时间(TTM)也增加了设计师的负担,因为最佳设计必须在越来越短的时间内完成。本文提出了一种优化设计流程方法,以优化集成电路(ic)的功耗(计算泄漏)。设计流程采用基于随机梯度下降(SGD)的算法,并以45 nm热传感器电路为例进行了实现。高效节能的高灵敏度热传感器对于减轻系统或电路的负担非常重要。以功耗为设计目标,同时保持温度分辨率为约束条件,将所提出的设计流程方法应用于热传感器。在全功能(RCLK)网络放大器上的实验表明,该方法可降低38%的功耗。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Stochastic Gradient Descent Optimization for Low Power Nano-CMOS Thermal Sensor Design
The drive for ultra efficient and low-cost portable devices continues to push the need for low power circuit designs. The increasing transistor density and complexity of IC designs aggravates the task of producing efficient low power and low cost design. The short time to market (TTM) also increases this burden on designers, as optimal designs have to be produced in an ever decreasing amount of time. This paper presents an optimization design flow methodology that optimizes the power (accounting leakage) consumption of integrated circuits (ICs). The design flow incorporates a stochastic gradient descent (SGD) based algorithm and is implemented using a 45 nm thermal sensor circuit as case study. Power-efficient high-sensitive thermal sensors are important to reduce the burden on the systems or circuits that they are implanted to sense. Experiments are performed to apply the proposed design flow methodology on the thermal sensor with the power consumption as the design objective while keeping the temperature resolution as a constraint. Experiments on full-blown (RCLK) netlist of sense amplifier show a reduction in power consumption by 38%.
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