Solid-state Microwave Power Oscillator Design

By: Eric L. Holzman, Ralston S. Robertson

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Hardcover | 1 December 1992

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480 Pages

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24.13 x 16.51 x 3.18

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Details improved approaches to the design of power oscillators that employ more analysis and theory and less empirical work than conventional design procedures. It bridges fundamental device physics and the development and implementation of practical microwave and millimeterwave power oscillators.

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Non-Fiction Engineering & Technology Electronics & Communications Engineering Electronics Engineering Microwave Technology Communications Engineering & Telecommunications Radar Technology Technology in General

Preface	p. xi
Introduction	p. 1
The Solid-State Microwave Power Oscillator	p. 1
Devices and Circuits	p. 2
Power Oscillator Design	p. 6
The Oscillator Equation	p. 8
Power Oscillator Applications	p. 9
References	p. 10
Review of Electromagnetic Theory	p. 11
Maxwell's Equations	p. 11
Statics and Poisson's Equation	p. 17
TEM and Quasi-TEM Transmission Lines	p. 18
Rectangular Waveguides	p. 33
Field Theory	p. 33
The Rectangular Cavity	p. 41
Transmission Line Representation of a Waveguide Mode	p. 43
Wave Propagation and Reflection	p. 46
Terminated Transmission Lines	p. 47
The Smith Chart	p. 49
Radial Line Input Impedance	p. 50
Network Representations: Y, Z, and S Parameters	p. 51
The Microwave Network	p. 52
Y-Parameters	p. 53
Z-Parameters	p. 54
S-Parameters	p. 55
References	p. 57
Oscillator Theory	p. 59
Fundamentals	p. 59
Resonators	p. 60
Negative Resistance	p. 62
The Oscillation Conditions Using Impedance	p. 62
Derivation of the Oscillator Equation	p. 63
Stability	p. 68
Noise	p. 69
Graphical Oscillator Analysis	p. 70
Oscillator Description: Impedance Loci versus Quality Factor	p. 73
Oscillation Conditions Using Reflection Coefficients	p. 74
N-Port Oscillation Condition	p. 78
Impedance and Admittance Matrix Oscillation Conditions	p. 78
Scattering Matrix Oscillation Condition	p. 79
Oscillator Phenomena	p. 83
Pulling Figure	p. 83
Start-Up Behavior	p. 84
Continuous and Pulsed Operation	p. 85
Appendices
Oscillator AM and Phase Noise	p. 88
Pulling Figure	p. 91
Chapter Glossary	p. 95
References	p. 97
Devices	p. 99
Semiconductor Theory	p. 99
Fundamentals	p. 99
Nonequilibrium Behavior	p. 105
Band-Bending	p. 107
Materials	p. 109
Semiconductor Junctions	p. 109
pn Junction	p. 109
Schottky Junction	p. 116
Schottky Ohmic Contact	p. 120
Heterojunction	p. 120
Two-Terminal Devices	p. 121
Varactor Diode	p. 121
IMPATT Diode	p. 131
Gunn Device	p. 146
Three-Terminal Devices	p. 151
Bipolar Junction Transistor	p. 152
Heterojunction Bipolar Transistor	p. 157
Metal Semiconductor Field-Effect Transistor	p. 159
High Electron Mobility Transistor	p. 164
Device Modeling	p. 166
Modeling Approaches	p. 166
Device Models	p. 168
References	p. 168
Planar Single-Device Oscillators	p. 171
Oscillator Design Strategy	p. 171
Planar SDO Design	p. 173
Linear Design	p. 174
Quasilinear Design	p. 176
The Device Line Technique	p. 177
The Gain Saturation Approximation	p. 180
The Empirical Device Large-Signal Equivalent Circuit	p. 183
The Theoretical Device Large-Signal Equivalent Circuit	p. 186
Nonlinear Design	p. 189
Harmonic Balance	p. 189
Volterra Series	p. 196
Dielectric Resonator Oscillators	p. 199
Bias Circuit Design	p. 207
Circuit Realization	p. 210
Microwave Integrated Circuits	p. 211
Monolithic Microwave Integrated Circuits	p. 212
Appendices
Empirical Equivalent Circuit Development	p. 214
Theoretical Equivalent Circuit Development	p. 218
References	p. 220
Cavity Single-Device Oscillators	p. 223
Cavity Oscillator Design Strategy	p. 223
Coaxial Oscillators	p. 226
Single Coaxial Entry Waveguide Circuit	p. 228
Derivation of the Input Admittance	p. 230
Numerical Considerations	p. 232
Waveguide Arms Terminated in Short and Match	p. 234
Equivalent Circuit for Arbitrary Waveguide Arm Terminations	p. 236
Post-Gap Waveguide Circuit	p. 241
Numerical Considerations	p. 242
Equivalent Circuit for Arbitrary Waveguide Arm Terminations	p. 243
Double Coaxial Entry Waveguide Circuit	p. 244
Derivation of the Circuit Admittance	p. 245
Equivalent Circuit for Arbitrary Waveguide Arm Terminations	p. 246
Coaxial-Gap Waveguide Circuit	p. 249
Top Hat Waveguide Circuit	p. 253
The Device Mount	p. 254
The Post-Gap Mount	p. 254
The Series-Mounted Device in a Coaxial Line	p. 257
Bias Circuit Design	p. 260
dc Bias Circuit Compatibility	p. 260
External Bias Circuit Components	p. 264
Circuit Realization	p. 266
Hardware Design	p. 266
Circuited Related Tuning Characteristics	p. 267
Temperature Compensation	p. 268
Oscillator Design Examples	p. 269
Appendices
General Expression for Y[subscript in]	p. 276
Single Coaxial Entry--Input Admittance	p. 278
Post Gap--Input Admittance	p. 288
Derivation of Y[subscript 21]	p. 291
Top Hat--Input Admittance	p. 294
References	p. 299
Voltage-Controlled Oscillators	p. 303
VCO Basics	p. 303
Varactors for VCOs	p. 305
Varactor Properties for Planar VCOs	p. 307
Frequency Linear Varactors	p. 310
Temperature Behavior	p. 311
Planar Varactor VCOs	p. 312
Linear Design	p. 312
Other Planar VCOs	p. 315
Linearity	p. 324
Waveguide Varactor VCOs	p. 324
The N-Post Circuit Gap Impedance Matrix	p. 326
Evaluation of the Impedance Expressions	p. 329
The Two-Post Circuit	p. 330
Strip-Post Equivalence Relationships	p. 335
Coaxial-Post Gap Equivalence	p. 336
Practicalities	p. 338
Appendices
N-Post Circuit--Impedance Matrix	p. 346
Strip-Post Equivalence Factor	p. 350
Chapter Glossary	p. 352
References	p. 354
Injection-Locked Oscillators	p. 357
Fundamentals	p. 357
Reflection-Type Injection Locking: Steady-State Theory	p. 359
Small-Signal Injection	p. 360
Locking Bandwidth	p. 364
Noise	p. 366
Negative Resistance Amplifiers	p. 368
Reflection-Type Injection Locking: Dynamic Theory	p. 369
The Dynamic Equations	p. 369
Adler's Equation	p. 371
The Locking Transient	p. 371
Spectrum of an Unlocked Oscillator	p. 372
The Circulator Output	p. 374
Phase Modulated Injection Signals	p. 375
Limitations to the Theory	p. 376
Reflection-Type Injection Locking: Design Practicalities	p. 377
Transmission-Type Injection Locking	p. 386
Appendices
Nonlinear Device Reactance Approximation	p. 393
The Load Current at the Circulator Output	p. 395
Locking Bandwidth--An Alternative Derivation	p. 396
References	p. 398
Power Combining	p. 401
Introduction	p. 401
Rectangular Waveguide Resonant Cavity Combiners	p. 403
Theory	p. 406
Injection-Locking Behavior of the Kurokawa-Magalhaes Combiner	p. 411
Combiner Operation Graceful Degradation	p. 412
Circuit Modeling	p. 414
Modified Kurokawa-Magalhaes Combiners	p. 417
Cylindrical Resonant Cavity Combiners	p. 419
Corporate Combiners	p. 425
Hybrid Combiner	p. 426
Chain-Coupled Combiner	p. 432
N-Way Nonresonant Combiners	p. 433
Wilkinson Combiner	p. 434
Radial-Line Combiner	p. 435
Disk Combiner	p. 437
Turnstile Combiner	p. 440
Chip-Level Combiners	p. 440
Other Types of Combiners	p. 443
Spatial Combiner	p. 443
Distributed Circuit Combiner	p. 444
Multiple-Level Combining	p. 447
References	p. 449
Index	p. 453
Table of Contents provided by Syndetics. All Rights Reserved.

Solid-state Microwave Power Oscillator Design

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Hardcover

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