Test consideration for nanometer scale CMOS circuits

K. Roy, T. M. Mak, K. Cheng
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引用次数: 3

Abstract

The ITRS (international technology roadmap for semiconductors) predicts aggressive scaling down of device size, transistor threshold voltage and oxide thickness to meet growing demands for performance. Such scaling will result in an exponential increase in leakage current and large variability in threshold voltage both within and across dies. Device counts will increase from about 0.2 B/chip today to approximately 10 B/chip in a decade. This 50/spl times/ increase in device count will increase not only the active power dissipation, but also the standby or the quiescent power. Hence, designers are required to use innovative aggressive power management strategies to meet the power constraints. The exponential increase in leakage, the device parameter variations, and aggressive power management techniques are expected to severely impact the way integrated circuits are tested today. This paper explores test considerations for the scaled CMOS circuits in the nanometer regime.
纳米级CMOS电路的测试考虑
ITRS(国际半导体技术路线图)预测,器件尺寸、晶体管阈值电压和氧化物厚度将大幅缩小,以满足日益增长的性能需求。这种缩放将导致漏电流呈指数级增长,并且在晶片内部和晶片之间的阈值电压变化很大。设备数量将从现在的0.2 B/片增加到十年后的10 B/片。器件数量增加50倍,不仅会增加有功功耗,还会增加待机或静态功耗。因此,设计人员需要采用创新的积极的电源管理策略来满足功率限制。泄漏的指数增长、器件参数的变化以及激进的电源管理技术预计将严重影响集成电路的测试方式。本文探讨了纳米尺度CMOS电路的测试考虑。
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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