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E-raamat: Time-Domain Computer Analysis of Nonlinear Hybrid Systems [Taylor & Francis e-raamat]

(Conexant Systems, Chelmsford, Massachusetts, USA)
  • Formaat: 416 pages, 236 Illustrations, black and white
  • Ilmumisaeg: 06-Nov-2001
  • Kirjastus: CRC Press Inc
  • ISBN-13: 9781315220284
Teised raamatud teemal:
  • Taylor & Francis e-raamat
  • Hind: 263,12 €*
  • * hind, mis tagab piiramatu üheaegsete kasutajate arvuga ligipääsu piiramatuks ajaks
  • Tavahind: 375,89 €
  • Säästad 30%
  • Formaat: 416 pages, 236 Illustrations, black and white
  • Ilmumisaeg: 06-Nov-2001
  • Kirjastus: CRC Press Inc
  • ISBN-13: 9781315220284
Teised raamatud teemal:
The analysis of nonlinear hybrid electromagnetic systems poses significant challenges that essentially demand reliable numerical methods. In recent years, research has shown that finite-difference time-domain (FDTD) cosimulation techniques hold great potential for future designs and analyses of electrical systems.

Time-Domain Computer Analysis of Nonlinear Hybrid Systems summarizes and reviews more than 10 years of research in FDTD cosimulation. It first provides a basic overview of the electromagnetic theory, the link between field theory and circuit theory, transmission line theory, finite-difference approximation, and analog circuit simulation. The author then extends the basic theory of FDTD cosimulation to focus on techniques for time-domain field solving, analog circuit analysis, and integration of other lumped systems, such as n-port nonlinear circuits, into the field-solving scheme.

The numerical cosimulation methods described in this book and proven in various applications can effectively simulate hybrid circuits that other techniques cannot. By incorporating recent, new, and previously unpublished results, this book effectively represents the state of the art in FDTD techniques. More detailed studies are needed before the methods described are fully developed, but the discussions in this book build a good foundation for their future perfection.
Preface ix
The Author xi
Introduction
1(18)
Introduction
1(1)
Electromagnetic Systems
2(6)
Hybrid Electromagnetic Systems
8(5)
Organization of the Book
13(6)
Electromagnetic Field Theory
19(48)
Introduction
19(1)
Electromagnetic Theory
20(25)
Coulomb's Law
20(3)
Gauss's law
23(1)
Faraday's law
24(1)
Ampere's law
25(3)
Continuity equation
28(1)
Magnetic vector Potential
29(1)
Maxwell's equations
30(3)
Wave equations and field retardation
33(7)
Time-harmonic field solution
40(2)
Boundary conditions
42(3)
Example of Solving Electromagnetic Field Distribution
45(22)
Circuit Equivalence and Transmission Line Theory
67(44)
Circuit Theory as Field Approximation
67(21)
Circuit basis under quasi-static approximation
67(4)
Circuit equations for some lumped elements
71(7)
Circuit model at different frequency ranges
78(4)
Transient response of a lumped circuit
82(6)
Transmission Line Theory
88(17)
General transmission line solution
89(7)
Lossless transmission line
96(5)
Lumped-element equivalent model for a transmission line
101(4)
Scattering Parameters of an n-port Network
105(6)
Definition of S Parameters
105(4)
Definitions of other network parameters
109(2)
Finite-Difference Formulation
111(68)
Introduction
111(2)
Finite-Difference Method
113(8)
Forward, backward and central differences
113(5)
Finite-difference approximation in a nonuniform grid
118(3)
System Solution and Stability Condition
121(20)
Jacobian matrix and system solution
121(2)
Application example
123(4)
Stability condition
127(14)
Solving Electromagnetic Fields in the Time Domain-FDTD Method
Introduction
141(1)
Finite-Difference Time-Domain Method
142(12)
Maxwell's equations
142(2)
Three-dimensional FDTD formulation
144(7)
Two-dimensional FDTD formulation
151(3)
Issues of FDTD Numerical Implementation
154(19)
Stability condition
154(2)
Absorbing boundary conditions
156(8)
Unconditionally stable FDTD algorithm
164(4)
Numerical dispersion in FDTD
168(5)
Examples of FDTD Application
173(6)
Circuit Formulation and Computer Simulation
179(44)
Introduction
179(1)
Constitutive Relation of Devices
180(11)
Modified Nodal Formulation of Circuit Simulation
191(6)
Transient Analysis of Linear Circuit
197(6)
Nonlinear Device Models in Circuit Simulation
203(9)
Diode model
204(2)
Bipolar Junction transistor model
206(3)
MOS Transistor Model
209(3)
Newton Method for Solving Systems with Nonlinear Devices
212(4)
Timestep Control in Transient Simulation
216(7)
Formulation for Hybrid System Simulation in the Time Domain
223(32)
Introduction
223(2)
Maxwell's Equations and Supplemental Current Equations
225(6)
Hybrid Circuit Simulation with Lumped Elements
231(11)
FDTD equations for RLC components
231(8)
Examples of hybrid circuit simulation
239(3)
Electron Beam in FDTD Simulation
242(13)
Interaction between electromagnetic field and an electron beam
242(1)
FDTD algorithm for modeling an electron beam
243(2)
Electron-beam modeling for a planar DC diode
245(4)
Small-signal space-charge waves in FDTD
249(6)
Interfacing FDTD Field Solver with Lumped Systems
255(34)
Introduction
255(3)
Linking FDTD Method with a SPICE-like Circuit Simulator
258(9)
Equivalent circuit model of a distributed system
258(3)
Implementation of the circuit-field model for hybrid simulation
261(4)
Example of the circuit-field model in FDTD
265(2)
Modeling a Multiport S-Parameter Network in FDTD
267(11)
Scattering parameters, port voltage, and port current
268(4)
Modeling a S-parameter block in FDTD grid
272(6)
Multiport Behavioral Model in FDTD
278(3)
Behavioral Model
278(1)
Behavioral model block in an FDTD grid
279(2)
Examples of General Hybrid System Cosimulation
281(8)
Simulation of Hybrid Electromagnetic Systems
289(40)
Introduction
289(1)
FDTD Characterization and De-embedding
290(5)
Examples of Hybrid System Cosimulation
295(25)
Commercial simulators
295(2)
Application of the circuit-field model
297(10)
Application of the multiport model
307(5)
General hybrid system cosimulation
312(8)
Analysis of Packaging Structure with On-chip Circuits
320(9)
Analysis of packaging structures
321(3)
Simulation of packaging structures with on-chip circuits
324(5)
Optical Device Simulation in FDTD
329(28)
Introduction
329(2)
Active Gain Media in VCSEL
331(5)
FDTD Formulation for Systems with Nonlinear Gain Media
336(3)
FDTD Analysis of VCSEL Structures
339(12)
One-dimensional structures
339(4)
Gain media in 2D structures
343(8)
Cosimulation for VCSEL Source and other Circuits
351(6)
Appendix I Vector Differential Operators and Vector Identities 357(4)
I.1 Vector Differential Operators
357(1)
I.2 Vector Identities
358(3)
Appendix II Laplace Transformation 361(8)
References 369(22)
Index 391