Modern RF and Microwave Filter Design

Name: Modern RF and Microwave Filter Design
Brand: Artech House
Price: 139.99 EUR
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Protap Pramanick(Author)

Artech House (Publisher)

Published on 1. January 2016

412 pages

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978-1-63081-382-6 (ISBN)

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Intro
Modern RF and Microwave Filter Design
Contents
Preface
CHAPTER 1 Introduction
1.1 Applications of RF And Microwave Filters
1.2 Impedance Matching Networks
1.3 The Concept of Complex Frequency
1.4 Useful Definitions
1.5 Realizable Driving-Point Impedances
References
CHAPTER 2 Microwave Network Theory
2.1 Introduction
2.2 Concepts Of Equivalent Voltage And Current
2.3 Impedance And Admittance Matrices
2.4 Scattering Matrix
2.4.1 Definition of Scattering Matrix
2.4.2 Transformation of Scattering Matrix Due to Shift in Reference Plane
2.4.3 Scattering Matrix of a Lossless Three-Port Network
2.4.4 Usefulness of Scattering Matrix
2.4.5 Scattering Matrix and the Concept of Insertion Loss
2.5 Measurement of Scattering Matrix
2.6 Chain Or ABCD Matrix
2.6.1 Use of ABCD Matrix in Computing Network Properties
2.6.2 Normalized ABCD Matrix
References
CHAPTER 3 Properties Of Microwave Transmission Lines
3.1 Introduction
3.2 Transmission Line Equations
3.3 Transmission Line With Electrical Discontinuity
3.4 Two-Conductor Transmission Lines
3.4.1 Two Round Conductors of Equal Diameter
3.4.2 Coaxial Line
3.4.3 Other Forms of Coaxial Line
3.4.4 General Equation for Attenuation in Two-Conductor Transmission Lines
3.4.5 Maximum Power-Handling Capability of a Coaxial Line
3.4.6 Coaxial Line Discontinuities
3.5 Rectangular Coaxial Line
3.5.1 Higher-Order Modes in a Rectangular Coaxial Line
3.5.2 Square Coaxial Line with Circular Inner Conductor
3.6 Strip Transmission Line
3.6.1 Basic Configuration
3.6.2 Modes in a Stripline
3.6.3 Characteristic Impedance of a Balanced Stripline
3.6.4 Unbalanced Stripline
3.6.5 Propagation Constant in a Stripline
3.6.6 Synthesis of a Stripline
3.6.7 Attenuation Constant in a Stripline
3.6.8 Power-Handling Capability of a Stripline
3.6.9 Stripline Discontinuities
3.7 Parallel-Coupled Lines
3.7.1 Edge-Coupled Striplines
3.7.2 Synthesis Equations
3.7.3 Attenuation in Coupled Striplines
3.7.4 Broadside Coupled Striplines
3.7.5 Coupled-Slab Lines
3.8 Inhomogeneous Transmission Lines
3.8.1 Shielded Microstrip Line
3.8.2 Coupled Microstrip Line
3.8.3 Suspended Microstrip Line
3.8.4 Shielded Suspended Microstrip Line
3.8.5 Edge-Coupled Suspended Microstrip Lines
3.8.6 Broadside-Coupled Suspended Striplines
3.8.7 Microstrip and Suspended Stripline Discontinuities
3.9 Single-Conductor Closed Transmission Lines
3.9.1 Hollow Metallic Waveguides
3.9.2 Characteristic Impedance of a Circular Waveguide
3.9.3 Attenuation in a Circular Waveguide
3.9.4 Maximum Power-Handling Capability of a Waveguide
3.9.5 Power-Handling Capability of a Circular Waveguide
3.9.6 Discontinuities in Waveguides and the Circuit Parameters
3.9.7 Waveguide Asymmetric H-Plane Step
3.9.8 Mode Matching Method and Waveguide Discontinuities
3.9.9 Waveguide Discontinuity Analysis in General
3.9.10 Finite Element Modal Expansion Method
3.9.11 Typical Three-Dimensional Discontinuity in a Rectangular Waveguide
References
CHAPTER 4 Lowpass Filter Design
4.1 Insertion Loss Method of Filter Design
4.2 Belevitch Matrix And Transfer Function Synthesis
4.2.1 Butterworth Approximation
4.2.2 Cauer Synthesis
4.2.3 General Solution for Butterworth Lowpass Filter Response
4.2.4 Chebyshev Approximation
4.2.5 Elliptic Function Approximation
4.2.6 Generalized Chebyshev Lowpass Filters
4.3 Concept Of Impedance Inverter
4.3.1 Physical Realization of Impedance and Admittance Inverters
4.4 Lowpass Prototype Using Cross-Coupled Networks
4.5 Design Of Lowpass Prototypes Using Optimization And The Method Of Least Squares
References
Appendix 4A
4A.1.1 Darlington Synthesis [17]
CHAPTER 5 Theory Of Distributed Circuits
5.1 Distributed Element Equivalence Of Lumped Elements
5.2 TLE or UE and Kuroda Identity
5.3 Effects Of Line Length And Impedance On Commensurate Line Filters
5.3.1 Design Example
5.3.1 Low-Pass Filter Prototype with a Mixture of UEs and Impedance Inverters
5.3.2 Quasi-Distributed Element TEM Filters
5.4 High-Pass Filter Design
5.4.1 Low-Pass to High-Pass Transformation
5.4.2 Quasi-Lumped Element High-Pass Filter
5.4.3 Levy's Procedure for Planar High-Pass Filter Design
5.4.4 Waveguide High-Pass Filter Design
5.5 Band-Stop Filter Design
5.5.1 Low-Pass to Band-Stop Transformation
5.5.2 Determination of Fractional 3-dB Bandwidth of a Single Branch
5.5.3 Effects of Dissipation Loss in Band-Stop Filters
5.5.4 Stub-Loaded Band-Stop Filter
5.5.4 Design Steps for Waveguide Band-Stop Filters
References
CHAPTER 6 Band-Pass Filters
6.1 Theory Of Band-Pass Filters
6.2 Distributed Transmission Line Form Of Capacitively Coupled Band-Pass Filter
6.2.1 Gap-Coupled Transmission Line Band-Pass Filters
6.2.2 Edge Parallel-Coupled Band-Pass Filters
6.2.3 Hairpin-Line Filter
6.2.4 Interdigital Filters
6.2.5 Capacitively Loaded Interdigital Filters
6.2.6 Band-Pass Filter Design Based on Coupling Matrix
6.2.7 Coaxial Cavity Band-Pass Filter Design
6.2.8 Combline Filters
6.2.9 Waveguide Band-Pass Filter Design
6.2.10 Evanescent-Mode Waveguide Band-Pass Filter Design
6.2.11 Cross-Coupled Resonator Filter Design
6.2.12 Design of Cross-Coupled Filters Using Dual-Mode Resonators
6.2.13 Folded Resonator Cross-Coupled Filters
6.2.14 Cross-Coupled Filters Using Planar Transmission Lines
6.3 Cross-Coupled Band-Pass Filters With Independently Controlled Transmission Zeros
6.4 Unified Approach To Tuning Coupled Resonator Filters
6.5 Dielectric Resonator Filters
6.5.1 Introduction
6.5.2 Modes in a Dielectric Resonator
References
Appendix 6A Slot Coupled Coaxial Combline Filter Design
Appendix 6B A Step-By-Step Procedure For Waveguide Folded and Elliptic Filter Design
Step 1: Designing the Basic Filter
Step 2: Bringing the Nonadjacent Resonators to Be Cross Coupled Close to Each Other
Step 3: Generating the Cross Coupling
Appendix 6C Design of Dielectric Resonator Filters
CHAPTER 7 Design Of Multiplexers
7.1 Definition Of A Multiplexer
7.2 Common Junction Multiplexer With Susceptance Annulling Network
7.3 Cascaded Directional Filter
7.4 Circulator Based Multiplexer
7.5 Manifold Multiplexer
7.5.1 Diplexer Design
7.5.2 Multiplexer Design
References
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Modern RF and Microwave Filter Design

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