Pulsed EM field computation in planar circuits : the contour integral method /
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| Format: | eBook |
| Language: | English |
| Published: |
Boca Raton :
CRC Press, Taylor and Francis Group,
[2018]
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| Subjects: | |
| Online Access: | Connect to the full text of this electronic book |
Table of Contents:
- --
- Introduction
- Synopsis
- Basic conventions
- Acronyms
- Basic formulation
- 2D model of a planar circuit
- Conclusions
- Instantaneously-reacting planar circuits
- Numerical solution of the reciprocity formulation
- Analytical solutions based on the eigenfunction expansion
- Validation of numerical results
- Comparison with an alternative numerical technique
- Conclusions
- Relation to the classic CIM
- Basic CIM formulation
- Point-matching solution
- Pulse-matching solution
- Numerical results
- Conclusions
- Rectangular planar circuits with relaxation
- Modal and ray-like TD expansions
- Conduction-loss dielectric relaxation
- Debyes dielectric relaxation
- Numerical results
- Conclusions
- Arbitrarily-shaped planar circuits with radiation loss and relaxation
- Formulation of the admittance-wall condition
- Inclusion of relaxation behavior
- Numerical results
- Conclusions
- Inclusion of linear lumped elements
- General formulation
- Inclusion of a resistor
- Inclusion of an inductor
- Inclusion of a capacitor
- Numerical results
- Conclusions
- Far-field radiation characteristics
- Radiation model of a planar circuit
- Evaluation of the radiation integral
- Numerical results
- Conclusions
- Time-domain mutual coupling between planar circuits
- 81
- EM coupling model
- A single planar circuit
- Coupling between two planar circuits
- An illustrative numerical example
- Conclusions
- Time-domain self-reciprocity of a one-port planar circuit
- Model definition
- Transmitting state of a planar circuit
- Receiving state of a planar circuit
- Reciprocity relations
- Numerical results
- Conclusions
- Thevenins circuit of an N-port planar circuit
- Model definition
- Transmitting state of an N-port planar circuit
- Receiving states of an N-port planar circuit
- Reciprocity analysis for the incident plane wave
- Reciprocity analysis for the incident wave field generated by known sources
- An illustrative example
- Numerical results
- Conclusions
- Time-domain radiated susceptibility of a planar circuit
- Reciprocity relations
- Numerical results
- Conclusions
- Scattering reciprocity properties of an N-port planar circuit
- Model definition
- Receiving situations of an N-port planar circuit
- Reciprocity relations
- Numerical results
- Conclusions
- Scattering of conductive and dielectric inclusions
- Problem definition
- Generic reciprocity relation
- TD compensation theorems
- Application of the TD compensation theorems
- Numerical results
- Conclusions
- The time-domain compensation contour integral method
- Problem formulation
- Problem solution
- Numerical results
- Conclusions
- Modeling of shorting via structures
- Problem definition
- Problem solution
- Numerical results
- Conclusions
- A Integrals of the logarithmic function
- B Implementation of TD-CIM
- Geometry of the circuit pattern
- Numerical integration
- Computation of excitation array F
- Computation of system array Q
- Step-by-step updating procedure
- Evaluation of the response in
- C Implementation of FD-CIM
- Computation of U and H matrices
- D Implementation of the admittance-wall boundary condition
- E Implementation of lumped-element arrays
- Inclusion of a resistor
- Inclusion of an inductor
- Inclusion of a capacitor
- Modification of the system array Q
- F The bell-shaped pulse
- G Expansion functions
- Linear expansion functions
- Quadratic expansion functions
- Cubic expansion functions
- H Greens function of the dissipative scalar 2D wave equation
- I Numerical inversion of the Laplace transformation
- J Greens function of the scalar 2D wave equation with relaxation
- References
- Index.