logo资料库

Microwave Solid State Circuit Design.pdf

发布时间：2022-05-29 发布人：admin 分类：说明书 资料大小：36.00M 资料格式：pdf 举报 版权申诉
第1页 / 共920页
第2页 / 共920页
第3页 / 共920页
第4页 / 共920页
第5页 / 共920页
第6页 / 共920页
第7页 / 共920页
第8页 / 共920页
资料共920页，剩余部分请下载后查看
    Face Cover
    Internal Cover
    Publishing Informations
    Contributors
    Contents
    Preface
    1. Introduction (P. Pramanick & P. Bhartia)
    1.1 Characteristics of Microwaves/Millimeter Waves
    1.2 History of Microwave Planar Circuits
    1.3 Applications of Microwave Planar Circuits
    1.4 Microwave Network Theory
    1.4.1 Concepts of Equivalent Voltage And Current
    1.4.2 Admittance and Impedance Matrices
    1.4.3 Scattering Matrix
    1.4.4 Transformation of Scattering Matrix Due to Shift In Reference Planes
    1.4.5 Chain Matrix(ABCD) Repressentation
    References
    2. Transmission Lines and Lumped Elements (I. Bahl)
    2.1 Transmission Lines
    2.1.1 Characteristics of Conventional Transmission Structures
    2.1.2 Characteristics of Planar Transmission Lines
    2.1.3 Comparison of Various MIC Transmission Media
    2.2 Coupled Lines
    2.3 Discontinuities
    2.4 Lumped Elements
    2.4.1 Design of Lumped Elements
    2.4.2 Design of Inductors
    2.4.3 Design of Capacitors
    2.4.4 Design of Resisters
    References
    Problems
    3. Resonators (A. Sharma & A. Khanna)
    3.1 Introduction
    3.2 Resonator Parameters
    3.2.1 Resonant Frequency
    3.2.2 Quality Factor
    3.2.3 Fractional Bandwidth
    3.2.4 Loaded Quality Factor
    3.2.5 Damping Factor
    3.2.6 Coupling
    3.3 Cavity Resonators
    3.3.1 Coaxial Resonators
    3.3.2 Reentrant Coxaial Resonators
    3.3.3 Rectangular Waveguide Resonators
    3.3.4 Circular Waveguide Resonators
    3.3.5 Elliptic Waveguide Resonators
    3.4 Planar Microstrip Resonant Structures
    3.4.1 Rectangular Microstrip Resonators
    3.4.2 Circular Microstrip Disk Resonators
    3.4.3 Circular Microstrip Ring Resonators
    3.4.4 Triangular Microstrip Resonators
    3.4.5 High-Q Resonators
    3.4.6 Tunable Resonators
    3.5 Dielectric Resonators
    3.5.1 Material
    3.5.2 Resonant Frequency
    3.5.3 Coupling of Dielectric Resonator in MIC Configuration
    3.5.4 Spurious Modes
    3.5.5 Frequency Tuning
    3.6 YIG Resonators
    3.6.1 Resonant Frequency and Quality Factor
    3.6.2 Coupling and Equivalent Circuit
    3.6.3 Magnetic Circuit
    3.7 Resonator Measurements
    3.7.1 Single-Port Resonator
    3.7.2 Two-Port Resonator
    References
    Problems
    4. Impedance Transformation Techniques (P. Shastry)
    4.1 Introduction
    4.2 Narrow-band transformation Techniques
    4.2.1 Distribute-Element Techniques
    4.2.2 Lumped-Element Techniques
    4.2.3 Combined Lumped- and Distributed-Element Techniques
    4.2.4 T- and Pi-Network Techniques
    4.3 Wide-band Tranformation Techniques
    4.3.1 Bode-Fano Criterion
    4.3.2 Multisection Quarter-Wave Transformers
    4.3.3 Tapered Transmission-Line Transformers
    4.3.4 Lumped- and Distributed-Element Matching Networks
    4.3.5 Image Impendance Terminations
    References
    Further Reading
    Problems
    5. Hybrids and Couplers (P. Bhartia & P. Pramanick)
    5.1 Introduction
    5.1.1 Basics of Hybrids and Couplers
    5.1.2 Types of Hybrids and Couplers
    5.1.3 Applications
    5.2 Design of Hybrids
    5.2.1 90deg Hybrids
    5.2.2 Ring Form of Branch-Line Hybrid
    5.2.3 Matched Hybrid T(Rat-Race Hybrid)
    5.2.4 Reduced-Size Quasi-Lumped Quadrate Hybrid [12]
    5.2.5 Modified Rat Race
    5.3 Coupled-Line Directional Couplers
    5.3.1 Directional Couplers Using Aperture-Coupled Lines
    5.3.2 TEM Line Directional Couplers
    5.3.3 Multiconductor Couplers
    5.3.4 Distributed-Type Couplers
    5.3.5 Wilkinson Couplers, Power Dividers, and Combiners
    5.3.6 Other Couplers
    5.4 Design Considerations
    5.4.1 Losses in Hybrids
    5.4.2 Directively Improvement
    References
    Problems
    6. Filters (E. Griffin & I. Bahl)
    6.1 Introduction
    6.1.1 Filter Parameter Defination
    6.1.2 Basic Types
    6.1.3 Applications
    6.2 Filter Measurements
    6.2.1 Insertion Loss and Return Loss
    6.2.2 S Parameters
    6.3 Filter Synthesis
    6.3.1 Filter Design from Low-Pass Filter Synthesis
    6.3.2 Special Response Filter Synthesis
    6.3.3 Filter Transformations
    6.3.4 Impedance and Admittance Inverters
    6.4 Experimental Method of Design Filters
    6.5 Filter Modeling
    6.5.1 Narrow-band Approximation
    6.5.2 Filter Analysis
    6.5.3 Numerical Techniques
    6.6 Electromagnetic Simulation
    6.6.1 Electromagnetic Simulation Methods
    6.6.2 Filter Example
    6.7 Filter Realizeations
    6.7.1 Printed-Circuit Filters
    6.7.2 Dielectric Resonator Filters
    6.7.3 Ceramic Block Filters
    6.7.4 Compact Filters
    6.7.5 Lumped-Element Filters
    6.8 Practial Considerations
    6.8.1 Size, Weight, and Cost
    6.8.2 Finite Q
    6.8.3 Power-Handing Capability
    6.8.4 Temperature Effects
    6.8.5 Group Delay
    6.8.6 Mechanical Tuning of Filters
    6.9 Electrically Tuned Filters
    References
    Problems
    7. Active Devices (R. Trew)
    7.1 Introduction
    7.2 Basic Semiconductor Device Equations
    7.3 Material Parameters
    7.4 Bipolar Transistors
    7.4.1 Basic Transistor Operation
    7.4.2 Current Gain
    7.4.3 Limitations and Second-Order Effects
    7.4.4 Microwave Transistor
    7.4.5 Equivalent Circuit
    7.4.6 Noise Figure Analysis
    7.4.7 Heterojunction Bipolar Transistors
    7.5 Field-Effect Transistors
    7.5.1 Basic Operation Principles
    7.5.2 MOSFET Model
    7.5.3 Small-Signal Model
    7.5.4 Equivalent Circuit and Figure of Merit
    7.5.5 Noise Figure Analysis
    7.5.6 Arbitrary Doping Profile Model and Deep Levels
    7.5.7 Power Field-Effect Transistors
    7.6 HEMTS
    7.6.1 HEMT Model
    7.6.2 Noise Performance
    7.7 Comparison of Bipolar Transistor and FET Noise Figures
    References
    Problems
    8. Passive Devices (R. Trew)
    8.1 Introduction
    8.2 PN Junctions
    8.2.1 Ideal Diode Equation
    8.2.2 Deviations from Ideal Diode Equation
    8.2.3 Junction Capacitance
    8.3 Schottky Barrier juntions
    8.3.1 Surface Effects
    8.3.2 Image Force Lowering
    8.3.3 Schottky Model
    8.3.4 Junction Capacitance
    8.3.5 Rectifying Contact Materials
    8.3.6 Series Resistance
    8.3.7 Equivalent Circuit
    8.3.8 Figure of Merit
    8.4 Varactor Diodes
    8.4.1 Equivalent Circuit
    8.4.2 Figure of Merit
    8.5 Varistors
    8.6 PIN Diodes
    8.6.1 Basic Device Physics
    8.6.2 Switching Speed
    8.6.3 Equivalent Circuit
    8.6.4 Figure of Merit
    8.7 Step Recovery Diodes
    8.7.1 Basic Device Physics
    8.7.2 Frequency Limits
    8.7.3 Equivalent Circuit
    References
    Problems
    9. Oscillators (A. Khanna)
    9.1 Introduction
    9.2 Active Devices for Microwave Oscillations
    9.3 Concept of Negative Resistance
    9.4 Three-Port S-Parameter Characterization of Transistors
    9.5 Oscillation and Stablity Conditions
    9.6 Transistor Oscillator Types and Configuration
    9.7 Fixed-Frequency Oscillators
    9.7.1 Resonator as Series Feedback Element
    9.7.2 Resonator as Parallel Feed Element
    9.7.3 Series versus Parallel Feedback
    9.7.4 Maxium Oscillator Power Output
    9.7.5 Temperature Stability of DROs
    9.7.6 Tunable DROs
    9.7.7 Transmission Resonator Oscillators
    9.8 Wide-Band Tunable Oscillators
    9.8.1 YIG-Tuned Oscillators
    9.8.2 Voltage-Controlled Oscillators
    9.9 Oscillator Characterization and Measurements
    9.9.1 Modulation Bandwidth
    9.9.2 Frequency and Power Pulling
    9.9.3 Phase Noise and Jitter
    References
    Problems
    10. Amplifiers (I. Bahl & E. Griffin)
    10.1 Introduction
    10.2 Amplifier Characterization
    10.2.1 Power Gain
    10.2.2 Noise Characterization
    10.2.3 Stability
    10.2.4 Nonlinear Behavior
    10.2.5 Dynamic Range
    10.3 Biasing Networks
    10.4 Small-signal Amplifier Design
    10.4.1 FET Selection
    10.4.2 Narrow-Band Low-Noise Design
    10.4.3 Maxium-Gain Amplifier Desgin
    10.4.4 Broadband Amplifiers
    10.5 Power Amplifiers
    10.5.1 Device Models: Linear and Nonlinear
    10.5.2 Load-Line Modelling
    10.5.3 Power Amplifier Design
    10.5.4 Design of Internal Matched Power FET Amplifier
    10.5.5 Power-Combing Techniques
    References
    Problems
    11. Detectors and Mixers (R. Harrison)
    11.1 Introduction
    11.1.1 Basics of Detcetion and Mixing
    11.1.2 Applications of Detectors and Mixers
    11.1.3 Nonlinear Resistive Device for Detection and Mixing
    11.1.4 Noise in Detector and Mixer Devices
    11.2 Detectors
    11.2.1 Principle of Operation
    11.2.2 Detectoe Sensitivity Measures
    11.2.3 Small-Signal Detector Theroy
    11.2.4 Large-Signal Detector Theory
    11.2.5 Detector Design Considerations
    11.3 Mixers
    11.3.1 Mixer Spectral Products
    11.3.2 Image-Enhanced Mixers
    11.3.3 Conversion Loss and Conversion Gain
    11.3.4 Ideal Mixers
    11.3.5 Exponential-Diode Mixers
    11.3.6 Mixer Performance Measures
    11.3.7 Types of Mixer Circuits
    11.3.8 Mixer Noise
    References
    Problems
    12. Microwave Control Circuits (K. Gupta)
    12.1 PIN Diode and MOSFET Modeling for Control Circuits
    12.1.1 PIN Diodes
    12.1.2 GaAs MOSFETs
    12.2 Design of Switches
    12.2.1 Basic Configurations
    12.2.2 Insertion Loss and Isolation
    12.2.3 Compensation of Device Reactances
    12.2.4 Single-Pole Double-Throw(SPDT) Switches
    12.2.5 Series-Shunt Switching Configurations
    12.2.6 Switching Speed Considerations
    12.3 Design of Phase Shifters
    12.3.1 General
    12.3.2 Switched-Line Phase Shifters
    12.3.3 Loaded-Line Phase Shifters
    12.3.4 Reflection-Type Phase Shifters
    12.3.5 Switched-Network Phase Shifters
    12.3.6 Amplifier-Type Phase Shifters
    12.4 Design of Limited Circuits
    12.4.1 Various Phenomena Used for Limiting
    12.4.2 PIN Diode Limiters
    12.4.3 Limiters in Microstrip Configuration
    12.5 Design of Variable Attenuators
    12.5.1 PIN Diode Attenuators
    12.5.2 MOSFET Attenuators
    References
    Problems
    13. Frequency Mutipliers and Dividers (R. Harrison)
    13.1 Introduction
    13.1.1 Basics of Frequency Multiplication and Division
    13.1.2 Applications
    13.2 Frequency Multiplication
    13.2.1 Types of Multipliers
    13.2.2 Nonlinear-Resistance Multipliers
    13.2.3 Nonlinear-Reactance Multipliers
    13.2.4 Active Frequency Multipliers
    13.3 Frequency Division
    13.3.1 Types of Frequency Dividers
    13.3.2 Parameteric Frequency Dividers
    13.3.3 Regenerative(Mixer-with-Feedback) Frequency Dividers
    13.3.4 Injection-Locked Frequency Dividers
    References
    Problems
    14. RF MEMS Devices and Circuit Applications(R. Ramadoss & K. Gupta)
    14.1 Introduction
    14.2 RF MEMS Fabrication and Assembly
    14.2.1 Fabrication Processes
    14.2.2 Assembly and Packaging Techniques
    14.3 RF MEMS Actuators
    14.3.1 Actuator Structures
    14.3.2 Electorstatic Actuators
    14.4 RF MEMS Devices
    14.4.1 Switches
    14.4.2 Varactos
    14.5 RF MEMS Applications
    14.5.1 Phase Shifters
    14.5.2 Filters
    14.5.3 Impedance Tuners
    14.5.5 Amplifiers
    14.5.6 MEMS Mechanical Resonators and Filters
    14.5.7 Micromachined Components and Circuits
    Appendix: Prameters of Symmetrical T-Network
    References
    Problems
    15. Circuit Fabication Technologies (I. Bahi)
    15.1 Introduction
    15.1.1 Materials
    15.1.2 Mask Layouts
    15.1.3 Mask Fabrication
    15.2 Printed-Circuit Boards[12, 13]
    15.2.1 PCB Fabrication
    15.2.2 Example of a PCB
    15.3 Microwave Printed Circuits
    15.3.1 MPC Fabrication
    15.3.2 MPC Examples
    15.4 Hybrid Integrated Circuits
    15.4.1 Thin-Film MICs
    15.4.2 Thick-Film Technology
    15.4.3 Cofired Ceramic and Glass-Ceramic Technology
    15.5 Monolithic Integrated Circuits
    15.5.1 MMIC Fabrication
    15.5.2 MMIC Example
    15.6 Technology Comparison and Choices
    References
    Appendix A. Units and Symbols
    A.1 SI Units and their Symbols
    A.2 Metric Prefixes
    A.3 Decibel Units
    Appendix B. Physical Constants and Other Data
    Appendix C. ABCD and S-Parameters
    C.1 ABCD Parameters
    C.2 S-Parameters
    Appendix D. Tranfer Function Responses
    D.1 Butterworth Response
    D.2 Chebyshev Response
    Index
    Back Cover
    分享到：
    赞 收藏

    相关推荐

    资料库

    开发技术

    共收录19306份资料，累计14个分类，关注成员有19位，主要包括：Actionscript,Javascript,PHP,VB,Perl,Delphi,Python,C#,C,Java,C++,Web开发,硬件开发,其它

    热门标签

    Actionscript Javascript PHP VB Perl Delphi Python C# C Java C++ Web开发 硬件开发 其它

    最新资料