Current testing: Dead or alive?

H. Manhaeve, P. Harrod, A. Singh, C. Patel, Ralf Arnolc, D. Appello
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Abstract

Summary form only given. Current, voltage and time (frequency) are the base parameters describing an electronic system. In the 1700's, Benjamin Franklin was one of the first experimenting with current tests, followed by many others shaping the current domain. In 1963 Frank Wanlass (Fairchild Semiconductor) planted the first seeds of using current testing as part of a structural approach to validate integrated circuits when publishing the concept of complementary-MOS (CMOS) logic circuitry. It occurred to him that a CMOS circuit would use very little power and that in standby; it would draw practically nothing - just the leakage current. It was therefore a fact that CMOS circuits with increased standby power consumption were defective. In 1981 Mark W. Levi demonstrated the concept of IDDQ testing (validating circuits by measuring and observing their quiescent supply current) in his ITC'1981 paper “CMOS is most Testable”. This paper kicked off a lot of research on IDDQ fault modeling, IDDQ defect detection capabilities, IDDQ and reliability, IDDQ efficiency. Much of that research happened in the late eighties - early nineties by “Chuck and Jerry”, exploring the benefits, followed by studies done by HP, IBM, TI, Philips, Alcatel, Ford Micro, ... Since then IDDQ testing became synonym to current testing. Extensive research revealed the IDDQ capabilities. Despite its demonstrated defect detection capabilities and screening efficiency, it was not an easy way for IDDQ to make it to the production test floor. The initial lack of commercial available ATPG tools and suitable measurement solutions were the hurdles to take. Then in 1996 a paper on " IDDQ test: sensitivity analysis of scaling" was published at ITC by Tom Williams at al. The purpose of this paper was to issue a warning that more complex IDDQ test schemes might be needed in future to deal with increased device complexity and increased background leakage, however it was interpreted as predicting the end of current testing (single threshold IDDQ more in particular) at least for high performance ICs. Next to current testing being a synonym for IDDQ testing, there is a wide variety of test processes out there where current measurements make up an important part of the test. The panel will revisit the ITC'96 prediction, make up a status and address questions such as: Is IDDQ testing (and its derivative such as delta IDDQ, current ratios, etc.) still applied these days and if so for which types of ICs and for what purposes (only leakage current measurements, test and diagnosis of bridging defects, etc.)?. IDDQ testing (and its derivative) is the dominant form of current testing. What about the others?. Does the actual use of current testing require/motivate/justify research on that topic?. Are the obstacles which led to the removal of current testing from test suites really impossible to overcome? What are these obstacles? Have we tried everything?. What other forms of current testing/current measurements are being deployed in industry today, what are the trends?. If current testing is not dead (yet), how long will it live?.
当前测试:死还是活?
只提供摘要形式。电流、电压和时间(频率)是描述电子系统的基本参数。在18世纪,本杰明·富兰克林是最早尝试当前测试的人之一,随后许多人塑造了当前的领域。1963年,Frank Wanlass (Fairchild Semiconductor)在发表互补mos (CMOS)逻辑电路概念时,播下了使用电流测试作为验证集成电路结构方法的一部分的第一颗种子。他突然想到,CMOS电路在待机状态下耗电很少;它实际上不会吸取任何东西——只是漏电流。因此,待机功耗增加的CMOS电路是有缺陷的。1981年,Mark W. Levi在其1981年的ITC论文“CMOS是最可测试的”中演示了IDDQ测试(通过测量和观察其静态电源电流来验证电路)的概念。本文在IDDQ故障建模、IDDQ缺陷检测能力、IDDQ可靠性、IDDQ效率等方面展开了大量的研究。许多研究发生在80年代末90年代初,由“查克和杰瑞”进行,探索其好处,随后由惠普,IBM, TI,飞利浦,阿尔卡特,福特微型,……从那时起,IDDQ测试就成了当前测试的同义词。广泛的研究揭示了IDDQ的功能。尽管IDDQ证明了缺陷检测能力和筛选效率,但它并不是一种容易的方法,使其进入生产测试车间。最初缺乏商用ATPG工具和合适的测量解决方案是需要克服的障碍。然后在1996年,一篇关于“IDDQ测试:尺度的敏感性分析”的论文由汤姆·威廉姆斯在ITC发表。本文的目的是发出一个警告,即未来可能需要更复杂的IDDQ测试方案来处理增加的设备复杂性和增加的背景泄漏,但它被解释为预测当前测试的结束(特别是单阈值IDDQ)至少对于高性能ic。除了当前测试是IDDQ测试的同义词之外,还有各种各样的测试过程,其中当前测量构成了测试的重要部分。该小组将重新审视ITC'96的预测,构成一个状态和解决问题,如:IDDQ测试(及其衍生物,如δ IDDQ,电流比等)仍然适用于这些天,如果适用于哪种类型的ic和什么目的(仅泄漏电流测量,桥接缺陷的测试和诊断等)?IDDQ测试(及其衍生物)是当前测试的主要形式。其他人呢?当前测试的实际使用是否需要/激励/证明对该主题的研究?导致从测试套件中移除当前测试的障碍真的无法克服吗?这些障碍是什么?我们都试过了吗?目前在工业中还部署了哪些其他形式的当前测试/当前测量,其趋势是什么?如果当前的测试还没有消亡,它还能存活多久?
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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