Springer International Publishing, 2019. — 116 p. — eBook ISBN: 978-3-319-99001-9.
This book presents a seamless and unified scheme for automating very complicated calculations required to design, evaluate performance characteristics of, and implement broadband and narrow band impedance matching sub-circuits. The results of these automated calculations (the component values of the impedance matching sub-circuit) are formatted as text SPICE(Simulation Program with Integrated Circuit Emphasis) input netlists. Readers then immediately can use any available SPICE simulator to measure the performance characteristics (DC response, transient response, frequency response, RMS power transferred from source to load, reflection coefficient insertion and transmission loss, ans standing wave ratio – SWR). The text SPICE netlist can be edited easily to fine-tune the performance characteristics, and perform design space exploration and “what-if” type of analyses.
Presents details of a coherent, logical and seamless scheme to design and measure the performance characteristics of both broad and narrow band impedance matching sub-circuits.
Relieves the designer from having to manually do complex, multi-step(therefore error-prone and time-consuming) calculations, especially those related to broadband impedance matching sub-circuit design.
Provides SPICE input netlists, which enable readers to use any available SPICE simulator to estimate the performance characteristics.
Introduction and Problem Statement.
Introduction.
Why Impedance Matching Is Essential.
How to Implement Impedance Matching: Conjugate Matching Condition.
Narrow Band Impedance Matching.
Broadband Impedance Matching.
Automated Impedance Matching Network Design Process and Design Examples with SPICE Performance Evaluation.
Introduction.
“L” Lumped Element Impedance Transformer – Automated Design and SPICE Performance Evaluation.
Single Transmission Line Segment Impedance Transformer – Automated Design and SPICE Performance Evaluation.
Single/Double Closed-/Open-Circuit Transmission Line Stub Impedance Transformer – Automated Design and SPICE Performance Analysis.
“Convert” Complex Load to Resistance – Parallel/Series Capacitor or Inductor Load Reactance – Automated Design and SPICE Performance Analysis.
Active Impedance Matching with Bi-junction Transistors in Feedback Loop and Shorted Transmission Line Segments to Neutralize Reactances.
Broad/Wide Band Impedance Matching with Unequal Source and Load Resistance Norton Single Element Series/Shunt Transforms – Automated Design and SPICE Performance Analysis.
Broad/Wide Band Impedance Matching with Unequal Source and Load Resistance General Norton to Element PI, T Transforms – Automated Design and SPICE Performance Analysis.
Broad/Wide Band Low-Pass Matching Network – Equal Source–Load Resistance – Parallel Load Capacitor – One-End Reflections – Automated Design.
and SPICE Performance Analysis.
Low-Pass Configuration Matching Network Design with Bode–Fano Constraints – Automated Design and Evaluation of Continued Fraction Form of Driving.
Impedance Function.
Non-optimized Real Frequency Method – Automated Design and Numerical Integration Evaluation of Hilbert Transform.
Guanella 1:n Ideal and Lossy Transmission Line Transformer Impedance Matching – Real Load Automated Design and SPICE Performance Analysis.
Guanella 1:n Ideal and Lossy Transmission Line Transformer Impedance Matching Complex Series Load – Automated Design and SPICE Performance Analysis.
Guanella 1:n Ideal and Lossy Transmission Line Transformer Impedance Matching – Complex Parallel RL Load – Automated Design and SPICE Performance Analysis.
Simple Broad/Wide Band Impedance Matching Scheme.
Appendix A. Supplied C Computer Language Executables for the Linux and Windows Operating Systems.
Appendix B. How to Install MingW (GCC Compiler Suite) on Computers Running Windows Operating System.