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Microwave and RF Design II - Transmission Lines
The book series Microwave and RF Design is a comprehensive treatment of radio frequency (RF) and microwave design with a modern “systems-first” approach. A strong emphasis on design permeates the series with extensive case studies and design examples. Design is oriented towards cellular communications and microstrip design so that lessons learned can be applied to real-world design tasks.
- Author
- Michael Steer
- Publisher
- North Carolina State University
- Source
- LibreTexts
- License
- CC BY-NC
- Language
- EN
Contents· 77 sections
- 01: Introduction to Distributed Microwave Circuits
- 1.01: Introduction
- 1.02: Book Outline
- 1.03: Chapter Outline
- 1.04: Distributed Circuits
- 1.05: Maxwell's Equations
- 1.06: Electric and Magnetic Field Laws
- 1.07: Electromagnetic Fields and Materials
- 1.08: Electric and Magnetic Walls
- 1.09: Fields in Lossy Mediums
- 1.10: Summary
- 1.11: References
- 1.12: Exercises
- 1.A: Appendix- Mathematical Foundations
- 02: Transmission Lines
- 2.01: Introduction
- 2.02: Transmission Line Theory
- 2.03: The Terminated Lossless Line
- 2.04: Special Cases of Lossless Terminated Lines
- 2.05: The Lossy Terminated Line
- 2.06: Reflections at Interfaces
- 2.07: Models of Transmission Lines
- 2.08: Two-Conductor Transmission Lines
- 2.09: Coaxial Line
- 2.10: Summary
- 2.11: References
- 2.12: Exercises
- 2.A: Appendix- Physical Constants and Material Properties
- 03: Planar Transmission Lines
- 3.01: Introduction
- 3.02: Substrates
- 3.03: Planar Transmission Line Structures
- 3.04: Modeling of Transmission Lines
- 3.05: Microstrip Transmission Lines
- 3.06: Microstrip Design Formulas
- 3.07: Stripline
- 3.08: Co-Planar Waveguide
- 3.09: Summary
- 3.10: References
- 3.11: Exercises
- 04: Extraordinary Transmission Line Effects
- 4.01: Introduction
- 4.02: Frequency-Dependent Characteristics
- 4.03: High-Frequency Properties of Microstrip Lines
- 4.04: Multimoding on Transmission Lines
- 4.05: Parallel Plate Waveguide
- 4.06: Microstrip Operating Frequency Limitations
- 4.07: Multimoding Considerations for Coplanar Waveguide
- 4.08: Multimoding Considerations for Stripline
- 4.09: Power Losses and Parasitic Effects
- 4.10: Lines on Semiconductor Substrates
- 4.11: Summary
- 4.12: References
- 4.13: Exercises
- 05: Coupled Lines and Applications
- 5.01: Introduction
- 5.02: Physics of Coupling
- 5.03: Coupled Transmission Line Theory
- 5.04: Low Frequency Capacitance Model of Coupled Lines
- 5.05: Symmetric Coupled Transmission Lines
- 5.06: Formulas for Impedance of Coupled Microstrip Lines
- 5.07: Terminated Coupled Lines
- 5.08: Directional Coupler
- 5.09: Models of Parallel Coupled Lines
- 5.10: Differential and Common Modes
- 5.11: Common Impedance Coupling
- 5.12: Summary
- 5.13: References
- 5.14: Exercises
- 06: Waveguides
- 6.01: Introduction
- 6.02: The Rectangular Wave Equation
- 6.03: Parallel-Plate Waveguide
- 6.04: Rectangular Waveguide
- 6.05: Summary
- 6.06: References
- 6.07: Exercises