Doctoral Dissertations
Abstract
"Modeling and simulating the multi-scale nature of a power distribution network (PDN) is essential to ensure the correct functioning of the devices connected to it. Simple parallel-plate sections constitute the core of these PDN geometries, together with sections where a large number of holes and vias are present, as in the case of a BGA footprint. Employing a divide-and-conquer approach allows for the modeling of these geometries separately, i.e., 3-D full wave solvers for the sections with holes and vias, and a cavity model approach, for the simple parallel-plate structures. Also, equivalent circuit models can be obtained for time-domain and frequency-domain SPICE simulations"--Abstract, page iv.
Advisor(s)
Drewniak, James L.
Committee Member(s)
DuBroff, Richard E.
Schuster, C.
Pommerenke, David
OKeefe, Matt
Department(s)
Electrical and Computer Engineering
Degree Name
Ph. D. in Electrical Engineering
Publisher
University of Missouri--Rolla
Publication Date
Fall 2007
Journal article titles appearing in thesis/dissertation
- Modeling of BGA footprints for power integrity on multilayer printed circuit boards from first principle and circuit model extraction
- Physics-based via models with the parallel-plate impedance included: coupled vias, full-ground vias and half-ground vias
- Physics-based via models with the parallel-plate impedance included: including the stripline to via discontinuity
- Physics-based via models with the parallel-plate impedance included: single-ended via models
Pagination
xvi, 116 pages
Note about bibliography
Includes bibliographical references.
Rights
© 2007 Giuseppe Selli, All rights reserved.
Document Type
Dissertation - Open Access
File Type
text
Language
English
Subject Headings
Ball grid array technologyElectric power distributionElectronic apparatus and appliances -- Power supplySignal processing -- Quality control
Thesis Number
T 9225
Print OCLC #
233578242
Electronic OCLC #
183034888
Recommended Citation
Selli, Giuseppe, "BGA footprints modeling and physics based via models validation for power and signal integrity applications" (2007). Doctoral Dissertations. 2002.
https://scholarsmine.mst.edu/doctoral_dissertations/2002