Timing Violation as Dominant Reason for Failure of Clocked Digital Circuit Due to RF Interference in Supply

Shanshan Nong, Tao Su
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引用次数: 1

Abstract

This paper covers our observations of the failure behavior of a clocked digital circuit with sinusoidal interference acting on its supply. Conventionally, it has been thought that interference causes mainly logic-level errors in digital circuits, with the average value of the interference determining the circuit delay. As the interference cycle time is much shorter than both the data path delay and clock cycle time, the average value of the interference is almost zero. However, it still causes a timing violation, rather than a logic-level error, in the circuit. This observation was at odds with conventional thinking. This behavior was confirmed with both transistor-level simulations and board-based measurements. The findings of the present study are important for determining the frequency response of the maximum tolerable interference amplitude of a digital circuit in the design phase
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电源射频干扰导致数字时钟电路失效的主要原因是时序冲突
本文介绍了我们对一个时钟数字电路在正弦干扰作用下的失效行为的观察。传统上,人们认为干扰主要引起数字电路中的逻辑级误差,干扰的平均值决定电路延迟。由于干扰周期时间比数据路径延迟和时钟周期时间都短得多,因此干扰的平均值几乎为零。然而,它仍然在电路中引起时序冲突,而不是逻辑级错误。这一观察结果与传统思维相左。这种行为得到了晶体管级模拟和基于电路板的测量的证实。本研究结果对于确定数字电路在设计阶段的最大可容忍干扰幅值的频率响应具有重要意义
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