Applying the Retarded Solutions of Electromagnetic Fields to Transmission Line RLGC Modeling

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P. Ye
B. Gore
P. Huray


The RLGC model, and its variations, is one of the most common techniques to simulate Transmission Lines. The RLGC model uses circuit network elements consisting of Resistance R, Inductance L, Conductance G and Capacitance C (per unit length) to represent a small segment of the Transmission Line, and then cascades multiple segments to simulate the Transmission Line of arbitrary length. Typically the parameters in RLGC model are extracted from the propagation constant and characteristic impedance of the transmission line, which are found using numerical simulation methods. These resulting RLGC parameters for multi-GHz signaling are usually frequency-dependent. This paper introduces an analytical approach to extract RLGC parameters to simulate transmission line, which results in a different model, the RLGC(p) model.


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Ye, P., Gore, B., & Huray, P. (2017). Applying the Retarded Solutions of Electromagnetic Fields to Transmission Line RLGC Modeling. Advanced Electromagnetics, 6(1), 56-62.
Research Articles
Author Biographies

P. Ye, University of South Carolina

Dr. Peng Ye is a principle signal integrity engineer within the x86 server division at Oracle Inc. His primary focus is high speed interconnect design and validation for multi-socket server system. Peng received his M.S.E.E and PH.D. degree from the University of South Carolina.

B. Gore, University of South Carolina

Brandon Gore is presently a signal integrity engineer within the Data Center Group at Intel Corp. developing platform level design guidelines for high speed differential signaling. His primary focus is high speed ENET interconnect guidelines. Brandon received his B.S.E.E. degree from Mississippi State University. He is currently a Doctoral Candidate at the University of South Carolina under Dr. Paul Huray where he also received a M.S.E.E. degree in Electrical Engineering.


P. Huray

Dr. Paul G. Huray is Professor of Electrical Engineering at the University of South Carolina and has worked at the Oak Ridge National Laboratory, Intel, and the White House.   Huray introduced the first graduate program on signal integrity and is the author of Maxwell’s Equations and The Foundations of Signal Integrity.


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