Impact of Self-Heating on Performance, Power and Reliability in FinFET Technology

Victor M. van Santen, P. Genssler, Om. Prakash, Simon Thomann, J. Henkel, H. Amrouch
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引用次数: 3

Abstract

Self-heating is one of the biggest threats to reliability in current and advanced CMOS technologies like FinFET and Nanowire, respectively. Encapsulating the channel with the gate dielectric improved electrostatics, but also thermally insulates the channel resulting in elevated channel temperatures as the generated heat is trapped within the channel. Elevated channel temperatures lowers the performance, increases leakage power and degrades the reliability of circuits. Self-heating becomes worse in each new transistor structure (from planar transistor to FinFET to Nanowire) due to the ever-increasing thermal resistance of the transistor. This leads to elevated temperatures, which must be carefully considered while designing circuits. Otherwise, reliability cannot be ensured. This work presents a self-heating study to illustrate how self-heating matters in digital circuits. It also explores the impact of running workloads in SRAM arrays, such as register files in CPUs, and how self-heating effects in SRAM cells can be mitigated.
自热对FinFET技术性能、功率和可靠性的影响
自热是当前和先进CMOS技术(如FinFET和Nanowire)可靠性的最大威胁之一。用栅极电介质封装通道改善了静电性能,但也使通道隔热,导致通道温度升高,因为产生的热量被困在通道内。升高的通道温度降低了性能,增加了泄漏功率,降低了电路的可靠性。在每一个新的晶体管结构中(从平面晶体管到FinFET再到纳米线),由于晶体管的热阻不断增加,自热变得越来越差。这会导致温度升高,在设计电路时必须仔细考虑这一点。否则无法保证可靠性。这项工作提出了一项自加热研究,以说明自加热在数字电路中的重要性。本文还探讨了在SRAM阵列中运行工作负载的影响,例如cpu中的寄存器文件,以及如何减轻SRAM单元中的自热效应。
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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