提示:温度效应反转感知超低功耗片上系统平台

Kyuseung Han, Sukho Lee, Jae-Jin Lee, Woojoo Lee, Massoud Pedram
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引用次数: 7

摘要

研究人员一直试图利用温度效应反转(TEI)现象来提高片上系统(SoC)设计的能效,同时又不牺牲其性能。然而,tei感知的低功耗方法有一个关键的限制,因为它们只能应用于SoC内不包含长(全局)线的组件。这是因为无论工作电源电压水平如何,电线延迟都会随着温度的升高而继续增加,这往往会抵消soc中TEI现象的积极影响。为了解决这一限制并充分利用tei感知方法,本文提出了新的tei启发SoC平台(称为TIP),该平台依赖于片上网络架构(称为µNoC)来实现系统互连。µNoC成功地减少了全球电线的总数和长度。通过采用三星28纳米FD-SOI技术制作TIP原型芯片,验证了TIP的有效性。广泛的后期测量表明,该芯片在继续以目标50MHz时钟频率工作的同时,可以在25°C时将其电源电压从0.54V降低到0.48V,在80°C时降低到0.44V,从而节省高达35%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。
TIP: A Temperature Effect Inversion-Aware Ultra-Low Power System-on-Chip Platform
Researchers have been trying to exploit the temperature effect inversion (TEI) phenomenon to improve energy efficiency of system-on-chip (SoC) designs without sacrificing its performance. However, TEI-aware low power methods have a critical limitation in that they can only be applied to components within the SoC that do not contain long (global) wires. This is because wire delays continue to increase with rising temperatures irrespective of the operating supply voltage level, which tends to cancel out positive effects of the TEI phenomenon in SoCs. To tackle this limitation and thoroughly utilize the TEI-aware methods, this paper presents new TEI-inspired SoC platform (called TIP), which relies on network-on-chip architecture (called µNoC) to realize system interconnects. The µNoC successfully reduces the total number and length of global wires. By fabricating a TIP prototyping chip in Samsung 28nm FD-SOI technology, we verify the effectiveness of TIP. Extensive post-fabrication measurements demonstrate that the chip while continuing to operate at a target 50MHz clock frequency can lower its supply voltage from 0.54V to 0.48V at 25°C and to 0.44V at 80°C, which results in up to 35% power saving.
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