Charge Acceleration and the Spatial Distribution of Radiation Emitted by Antennas and Scatterers

Edmund K. Miller earned a PhD in Electrical Engineering from the University of Michigan in 1965 with an emphasis on computational electromagnetics. His working career has been varied including employment at four universities (Michigan Technological University, University of Michigan, Kansas University and Ohio University), three companies (MB Associates, Rockwell International Science Center, and General Research Corporation, all in California) and two national laboratories (Lawrence Livermore and Los Alamos). He was the first president of ACES. He has served two terms on the IEEE Antennas and Propagation Society (AP-S) Administrative Committee and has twice been an AP-S Distinguished Lecturer. He was elected IEEE Fellow in 1984 and received the IEEE Third Millennium Medal in 2000. He was the recipient (with others) of the 1988 Best Paper Award from the IEEE Education Society. Between 1985 and 2002, he served on the editorial board of IEEE Potentials Magazine as Editor or Associate Editor for which he wrote a regular column "On The Job." Dr Miller also wrote a column for the AP-S Magazine "PCs for AP and Other EM Reflections" from 1984 to 2000. He was an organizer of, served as its first president, and is a Fellow of the Applied Computational Electromagnetics Society (ACES) for which he served two terms on its Board of Directors. His interests include CEM, applied signal processing, visual electromagnetics, and promoting the incorporation of accuracy statements in published CEM numerical results. He has published numerous articles dealing with his major interest, the physics of electromagnetic radiation.

Chapter 1: Overview
Chapter 2: The electric-field kink model of electromagnetic radiation
Chapter 3: Charge-acceleration and radiation from a generic wire object
Chapter 4: Time-domain electromagnetic-field energy measures
Chapter 5: Radiation-loss dependence of a circular loop antenna on its circumference and wire radius
Chapter 6: Differentiating the on-surface Poynting vector of a wire to determine its radiation loss
Chapter 7: Time-domain far-field analysis of radiation sources and TWTD
Chapter 8: Frequency-domain far-field analysis of radiation sources and NEC
Chapter 9: Time-domain FARS and frequency-domain FARS compared
Chapter 10: The radiation properties of some specified currents
Chapter 11: The incremental FARS (IFARS) and incremental IEMF (IIEMF) methods
Chapter 12: The Schelkunoff-Feldman radiation resistance
Chapter 13: Radiation from a near-zero-radius dipole and a sinusoidal current filament
Chapter 14: The pattern rank and spatial radiation distribution of radiation emitted by a sinusoidal current filament
Appendix A: The thin-wire time-domain (TWTD) computer code
Appendix B: The Numerical Electromagnetics Code (NEC)
Appendix C: Notation