低功耗[会议摘要]

K. Vaniseghem, Hyun Lee
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引用次数: 0

摘要

仅给出摘要形式,如下。对当今系统的电源考虑是非常重要的。便携式应用程序、远程应用程序和消费产品都在推动对降低功耗的需求。基于电池的系统正变得越来越普遍,消费者不希望牺牲性能。因此,最小化功耗是一个非常热门的话题,也是本次技术会议的焦点。会议从一个制造的MPU设计开始,该设计采用多阈值方案,采用绝缘体上硅(SOI)技术分离,具有非常低的功耗。提出了一种具有可调阈值电压的新型超低电压差分技术(以及使用浮栅晶体管的电流反射镜和电流逆变器应用)。然后提出了多电源电压的高级综合调度。另一种多电源电压方案显示了利用双供电轨道到所有单元和适当的调度哪个轨道用于每个单元的优势。该方案以最小的面积和时间成本节省电力。低于1V的超低电源电压引入了在较高电源电压下所没有的约束。然后提出了一个新的MOSFET模型,该模型提供了对开/关电流相互依赖的洞察,这对电压缩放至关重要。提出了一种适用于低功耗应用的条件和加法规则。介绍了应用于个人数字蜂窝电话语音编解码器的低功耗设计技术。本次会议的最后一篇论文概述了一个使用多芯片封装技术的PC-on-a-chip系统。这种单封装系统需要在硅上实现许多低功耗特性,本文演示了这样的系统。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Low Power [session summary]
Summary form only given, as follows. Power considerations for today¿s systems are very important. Portable applications, remote applications and consumer products are all driving the need for reduced power consumption. Battery based systems are becoming much more prevalent and consumers do not wish to sacrifice performance. Thus minimizing power consumption is a very hot topic and the focus of this technical session. The session begins with a fabricated MPU design exhibiting very low power consumptiion using a multi-threshold scheme with separation by silicon-on-insulator (SOI) technology. A novel ultra low voltage differential technology with adjustable threshold voltages (and current-mirror and current-inverter applications using floating gate transistors) is presented. High level synthesis scheduling for multiple supply voltages is then presented. Another multiple supply voltage scheme is shown taking advantage of dual supply rails to all cells and proper scheduling of which rail is used for each cell. This scheme saves power at minimal cost of area and timing. Ultra low-power supply voltages below 1V introduce constraints not seen at higher supply voltages. A new MOSFET model is then presented that provides insight into the on/off current interdependence which becomes critical with voltage scaling. A new conditional-sum addition rule for low power applications is then presented. Next paper presents design technique for very low power applied to Speech Codec in the Personal Digital Cellular Phone. The final paper of this session outlines a PC-on-a-chip system using multi-chip package technology. This single package system requires numerous low power features implemented in silicon and this paper demonstrates such a system.
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