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Power Integrity Modeling and Design for Semiconductors and Systems

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TLDR
This book's system-level focus and practical examples will make it indispensable for every student and professional concerned with power integrity, including electrical engineers, system designers, signal integrity engineers, and materials scientists.
Abstract
The First Comprehensive, Example-Rich Guide to Power Integrity ModelingProfessionals such as signal integrity engineers, package designers, and system architects need to thoroughly understand signal and power integrity issues in order to successfully design packages and boards for high speed systems Now, for the first time, there's a complete guide to power integrity modeling: everything you need to know, from the basics through the state of the artUsing realistic case studies and downloadable software examples, two leading experts demonstrate today's best techniques for designing and modeling interconnects to efficiently distribute power and minimize noiseThe authors carefully introduce the core concepts of power distribution design, systematically present and compare leading techniques for modeling noise, and link these techniques to specific applications Their many examples range from the simplest (using analytical equations to compute power supply noise) through complex system-level applicationsThe authors Introduce power delivery network components, analysis, high-frequency measurement, and modeling requirements Thoroughly explain modeling of power/ground planes, including plane behavior, lumped modeling, distributed circuit-based approaches, and much more Offer in-depth coverage of simultaneous switching noise, including modeling for return currents using time- and frequency-domain analysis Introduce several leading time-domain simulation methods, such as macromodeling, and discuss their advantages and disadvantages Present the application of the modeling methods on several advanced case studies that include high-speed servers, high-speed differential signaling, chip package analysis, materials characterization, embedded decoupling capacitors, and electromagnetic bandgap structures This book's system-level focus and practical examples will make it indispensable for every student and professional concerned with power integrity, including electrical engineers, system designers, signal integrity engineers, and materials scientists It will also be valuable to developers building software that helps to analyze high-speed systems

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A Methodical Approach for PCB PDN Decoupling Minimizing Overdesign with Genetic Algorithm Optimization

TL;DR: In this paper , an optimization routine is applied for the decoupling capacitor placement on power distribution networks to identify the limit beyond which the placement of additional decaps is no longer effective, thus leading to wasting layout area and components, and to a cost increase.
Proceedings ArticleDOI

2D and 3D representations of the noise in a PCB using analytical methods

TL;DR: In this paper, the authors proposed a solution to analyze the power planes with and without decoupling capacitors in the frequency domain using analytical methods, which can describe the self-impedance and the transfer impedance of two ports that are mounted on a plane pair.
Journal ArticleDOI

Computation of Maximum Voltage Droop in Power Delivery Networks

TL;DR: A methodology to predict the maximum voltage droop caused by current sources in ICs is proposed and the analytical relations are derived and the error bounds for the analytical equations derived are captured.

Computational Intelligence Based Selection and Placement of Decoupling Capacitors: A Comparative Study

TL;DR: This paper presents a computational intelligence based generic framework to solve the industrial problem of decoupling capacitor optimization in a practical power delivery network using metaheuristic algorithms.
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