Computational Electrodynamics: The Finite-Difference Time-Domain Method is the essential reference for professional engineers, university professors and students using, teaching, or learning FDTD solutions to Maxwell's equations. The book provides a comprehensive tutorial of FDTD theory and techniqu
Computational electrodynamics: Finite Difference Time Domain Method
β Scribed by Allen Taflove
- Book ID
- 127423444
- Publisher
- Artech House Publishers
- Year
- 1995
- Tongue
- English
- Weight
- 8 MB
- Series
- Antennas & Propagation Library
- Category
- Library
- ISBN-13
- 9780890067925
No coin nor oath required. For personal study only.
β¦ Synopsis
Written by the pioneer and foremost authority on the subject, this new book is both a comprehensive university textbook and professional/research reference on the finite-difference time-domain (FD-TD) computational solution method for Maxwell's equations. It presents in-depth discussions of: The revolutionary Berenger PML absorbing boundary condition; FD-TD modelling of nonlinear, dispersive, and gain optical materials used in lasers and optical microchips; unstructured FD-TD meshes for modelling of complex systems; 2.5-dimensional body-of-revolution FD-TD algorithms; Linear and nonlinear electronic circuit models, including a seamless tie-in to SPICE; Digital signal postprocessing of FD-TD data; FD-TD modelling of microlaser cavities; and FD-TD software development for the latest Intel and Cray massively parallel computers.
π SIMILAR VOLUMES
*Essentials of Computational Electromagnetics* provides an in-depth introduction of the three main full-wave numerical methods in computational electromagnetics (CEM); namely, the method of moment (MoM), the finite element method (FEM), and the finite-difference time-domain (FDTD) method. Numerous m
Computational Electromagnetics is a young and growing discipline, expanding as a result of the steadily increasing demand for software for the design and analysis of electrical devices. This book introduces three of the most popular numerical methods for simulating electromagnetic fields: the finite