基于创新混合目标阻抗的输电网优化方法

Jun Xu, S. Bai, Kartheek Nalla, Mike Sapozhnikov, J. Drewniak, C. Hwang, J. Fan
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引用次数: 4

摘要

设计良好的电力输送网络(PDN)需要一套高效的芯片封装pcb系统建模和优化方法。本文提出并验证了用于频域PDN阻抗优化的混合目标阻抗和用于时域电压响应验证的基于物理的小信号等效电路模型。混合目标阻抗定义为基于电流剖面的离散目标阻抗和连续目标阻抗。分别针对片上最坏情况开关场景和稳压模块开关纹波场景确定了两个关键阻抗点,如果确定了特定的核心功率开关场景,可以增加更多的阻抗点。连续阻抗点是由电压纹波到电流动态变化的传统目标阻抗。这种混合方法为系统级去耦电容在频域优化和在时域满足电压要求提供了一种更有效和收敛的方法,同时也避免了过度设计以节省成本。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Power Delivery Network Optimization Approach using an Innovative Hybrid Target Impedance
A well-designed power delivery network (PDN) demands a set of efficient and effective modeling and optimization methodology for the Chip-Package-PCB System. This paper work provided and validated the hybrid target impedance for the PDN impedance optimization in frequency domain and the physics-based equivalent circuit model with small signal model for voltage response validation in time domain. The hybrid target impedance defined with current profile-based discrete and continuous target impedance. Two key impedance points in discrete were identified for on-chip worst case switching scenario and voltage regulator module switching ripple, more points can be added if specific core power switching scenario identified. The continuous impedance points are from the conventional target impedance by voltage ripple to dynamic current change. This hybrid method provides a more effective and convergent way to perform system level decoupling capacitors optimization in frequency domain and to meet voltage specification in time domain, also to avoid overdesigning for cost saving.
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