采用分割SAR架构的IEEE 1687模拟测试接口支持嵌入式仪器可靠性应用

J. Pathrose, L. V. D. Logt, H. Kerkhoff
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引用次数: 0

摘要

嵌入式仪器在现代芯片系统中已经无处不在,用于测试和监控目的。IEEE 1687或IJTAG解决了这些嵌入式仪器的访问和操作的标准化问题。最近,出于可靠性的考虑,人们对采用嵌入式仪器产生了浓厚的兴趣。许多这些嵌入式仪器都需要监测本质上是模拟量的物理量。将这些模拟仪器集成到IEEE 1687基础设施中的成本效益架构是一个瓶颈,尚未标准化。本文提出了一种既省时又省地的结构,将模拟嵌入式仪器连接到IEEE 1687网络上,特别是在可靠性应用方面。该体系结构减轻了与使用模拟测试总线相关的缺点,并以最小的硬件开销支持周期性采样。采用台积电40nm CMOS技术进行了仿真,以说明该概念。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Analog Test Interface for IEEE 1687 Employing Split SAR Architecture to Support Embedded Instrument Dependability Applications
Embedded instruments have become ubiquitous in modern day System-on-Chips for test and monitoring purposes. IEEE 1687 or IJTAG addresses the standardization of access and operation of these embedded instruments. Recently, there has been a lot of interest in employing embedded instruments for dependability purposes. Many of these embedded instruments are required to monitor physical quantities which are analog in nature. A cost-effective architecture to integrate these analog instruments into the IEEE 1687 infrastructure is a bottleneck and has not yet been standardized. This paper presents a time and area efficient architecture to interface analog embedded instruments onto the IEEE 1687 network especially for dependability applications. The architecture mitigates the drawbacks associated with utilizing an analog test bus and enables periodic sampling with minimal hardware overhead. The simulations to illustrate the concept have been conducted with TSMC 40nm CMOS technology.
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