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Microwave Network Design Using the Scattering Matrix

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ISBN-10: 1608071294

ISBN-13: 9781608071296

Edition: 2010

Authors: Janusz Dobtowolski

List price: $139.00
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Description:

This authoritative resource provides you with comprehensive and detailed coverage of the wave approach to microwave network characterization, analysis, and design using scattering parameters. For the first time in any book, all aspects and approaches to wave variables and the scattering matrix are explored. The book compares and contrasts voltage waves, travelling waves, pseudo waves, and power waves, and explains the differences between real scattering parameters, pseudo scattering parameters, and power scattering parameters. You find important discussions on standard scattering matrices and wave quantities, mixed mode wave variables, and noise wave variables with noise wave correlation…    
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Book details

List price: $139.00
Copyright year: 2010
Publisher: Artech House
Publication date: 10/31/2010
Binding: Hardcover
Pages: 215
Size: 6.25" wide x 9.25" long x 0.75" tall
Weight: 1.144

Introduction
References
Theory of Uniform Waveguides
Modal Electromagnetic Fields
Power Transmitted in a Waveguide
Characteristic Impedance
Normalization of Waveguide Voltage and Current
Transmission Line Equivalent Circuit of a Waveguide
References
Theory of Transmission Lines
Lumped Elements Circuit Model of a Transmission Line
Voltage and Current Wave Propagation in a Transmission Line
Terminated Transmission Line
Terminated Transmission Line Special Cases
References
Wave Variables and the Scattering Matrix
Voltage Traveling Waves and the Scattering Matrix
Physical Interpretation of Scattering Parqameters
A Shift in Reference Plane
Scattering Matrix Properties
Conversions Between the Scattering Matrix and Other Matrix Descriptions of Microwave Networks
Normalized Voltage Traveling Waves and the Generalized Scattering Matrix
Physical Interpretation of Generalized Scattering Parameters
Traveling Wave Intensities and the True Scattering Matrix
Pseudowaves and the Pseudoscattering Matrix
Pseudoscattering Matrix Properties
Conversions Between the Pseudoscattering Matrix and other Matrix Descriptions of Microwave Networks
Change of Reference Impedances
One-Port Reference Impedance Transformation
Multiport Network Reference Impedance Transformation
Two-Port Reference Impedance Transformation
Three-Port to Two-Port Network Scattering Matrix Transformation
Scattering Matrix of the Cascade of Two-Port Networks
Scattering Matrix of an Embedded Multiport Network
Generalized Multiport Network Cascade Matrix
T-Matrix to S-Matrix and S-Matrix to T-Matrix Transformation for Multiport Network with the Same Number of Input and Output Ports (Balanced Networks)
T-Matrix to S-Matrix and S-Matrix to T-Matrix Transformation for Multiport Networks with Different Numbers of Input and Output Ports (Unbalanced Networks)
Load Impedance
Power Waves and the Power Scattering Matrix
Physical Interpretation of Power Waves
Physical Interpretation of Power Scattering Parameters
Conversions Between Power Wave Scattering Matrix and Other Matrix Descriptions of Microwave Networks
Power Scattering Matrix Properties
Port Connections
References
Signal Analysis of Multiport Networks
Wave Relations For Basic Elements of Multiport Networks
Signal Source
Load
Microwave Network Analysis Using Scattering Parameters and Signal Flow Graphs
Signal Analysis of Two-Port Networks
Transducer Power Gain
Power Gain
Available Power Gain
Stability Consideration for Active Two-Port Networks
Maximum Power Gain
Constand Power Gain Circles
Constand Available Power Gain Circles
Insertion Loss
Voltage Gain
Voltage Transfer Gain
Multiport Network Analysis
Multielement Multiport Network Analysis Using Connection Scattering Matrix Approach
References
Mode Wave Variables and Mixed Mode Scattering Matrix of Differential Networks
Differential and Common Mode Definitions
Mode-Specific Waves and Impedances
Mixed Mode Scattering Parameters
Transformation Between Standard-and Mixed-Mode Scattering Parameters
Generalized Mixed-Mode Pseudoscattering Matrix
Mixed-Mode Cascade Matrix
References
Noise Wave Variables and the Scattering Matrix
Noise Waves
Noise Power Waves
Noise Pseudowaves
Noise Wave Representation of Microwave Networks
Other Noise Representations of Noisy Networks and Their Transformations to Noise Wave Parameters
Chain Matrix Noise Representation
Cascade Matrix Noise Representation
Impedance Matrix and Admittance Matrix Noise Representations
Noise Modeling of Microwave Network Elements
Noise Wave Correlation Matrices of Passive Multiport Networks
Noise Correlation Matrices of Passive Multiport Networks Embedded in Lossy Waveguides
Noise Wave Correlation Matrices of Active Two-Port Networks
Two-Port to Three-Port Noise Wave Transformation
Noise Wave Correlation Matrices of Embedded Multiport Networks
Deembedding Noise Wave Parameters of Cascaded Noisy Two-Port Networks
References
Noise Analysis of Multiport Networks
Basic Relationships For Noisy Multiport Networks
Classical Two-Port Network Noise Theory
Noise Figure of a Two-Port Network
Constant Noise Figure Circles
Two-Port Network Noise Analysis Using Scattering Matrix
Noise Analysis of Two-Port Networks Using Noise Waves And Cascade (Transfer Scattering) Matrix
Noise Wave Parameters Of Cascade Connected Two-Port Networks
Noise Analysis of Multielement Multiport Networks Using Connection Scattering Matrix Approach
Noise Figure
Signal-to-Noise Ratio
Noise Analysis of Multiport Networks
Noise Figure
Signal-to-Noise Ratio
References
Scattering Functions in Nonlinear Modeling of Microwave Devices
Large-Signal Scattering Functions
Linearization of Scattering Functions
The Time Reference
Application of the Response Coefficients Matrices S and S′ to Predict Nonlinear Device Performance
Experimental Determination of the Response Coefficients Matrices S and S′
References
Appendix
About the Author
Index