Development of an on-chip sensor for substrate coupling study in Smart Power mixed ICs

V. Tomasevic, A. Boyer, S. Ben Dhia
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引用次数: 3

Abstract

In order to merge low power and high voltage devices on the same chip at competitive cost, Smart Power integrated circuits (ICs) are extensively used. Electrical noise induced by power stage switching or external disturbances generates parasitic substrate currents, leading to a local shift of the substrate potential which can severely disturb low voltage circuits. Nowadays this is the major cause of failure of Smart Power ICs, inducing costly circuit redesign. Modern CAD tools cannot accurately simulate this injection of minority carriers in the substrate and their propagation in the substrate. In order to create a link between circuit design, modelling and implementation in innovative CAD tools there is a need to validate these models by measuring the high voltage perturbations that activate parasitic structures in the substrate directly on the chip. This paper presents an on-chip noise sensor dedicated to measurements of transient voltage fluctuations induced by high voltage activity and coupled by the substrate.
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用于智能电源混合集成电路衬底耦合研究的片上传感器的研制
为了以具有竞争力的成本在同一芯片上合并低功耗和高压器件,智能电源集成电路(ic)得到了广泛的应用。由功率级开关或外部干扰引起的电噪声会产生寄生基片电流,导致基片电位的局部移位,从而严重干扰低压电路。目前,这是智能电源ic失效的主要原因,导致昂贵的电路重新设计。现代CAD工具不能准确地模拟这种少数载流子在基材中的注入及其在基材中的传播。为了在创新的CAD工具中创建电路设计,建模和实现之间的联系,需要通过测量直接在芯片上激活基板中的寄生结构的高压扰动来验证这些模型。本文提出了一种片上噪声传感器,专门用于测量由高压活度引起并由衬底耦合的瞬态电压波动。
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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