电网电压完整性验证

Maha Nizam, F. Najm, A. Devgan
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引用次数: 27

摘要

全芯片验证需要检查电网是否安全,即电网上的电压降是否超过某一阈值。传统的基于仿真的解决方案在计算上是昂贵的,因为需要模拟各种可能的电路行为;它也有缺点,它需要完全了解连接到电网的电路的详细信息,从而排除了对电网的早期验证。我们提出了一种电网验证技术,可以在完整电路设计之前应用,而无需精确了解电路电流。我们使用电流约束,这是可以从网格中绘制的电流的上限约束,作为捕获电路细节和活动的不确定性的一种方法。基于此,我们提出了两种解决方案。一种方法给出了电网中每个节点的最坏情况电压降的上限。另一种成本较低的方法是应用充分条件(因此,这成为一种保守方法)来检查电网上的下降是否超过给定的电压阈值。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Power grid voltage integrity verification
Full-chip verification requires one to check if the power grid is safe, i.e., if the voltage drop on the grid does not exceed a certain threshold. The traditional simulation-based solution to this problem is computationally expensive, because of the large variety of possible circuit behaviors that would need to be simulated; it also has the disadvantage that it requires full knowledge of the details of the circuit attached to the grid, thereby precluding early verification of the grid. We propose a power grid verification technique that can be applied before the complete circuit has been designed and without exact knowledge of the circuit currents. We use current constraints, which are upper bound constraints on the currents that can be drawn from the grid, as a way to capture the uncertainty about the circuit details and activity. Based on this, we propose two solution approaches. One approach gives an upper-bound on the worst-case voltage drop at every node of the grid. Another, less expensive approach, applies a sufficient condition (thus, this becomes a conservative approach) to check if the drop on the grid exceeds a given voltage threshold.
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