Fundamentals of Microwave Electronics

Foreword to the English EditionForewordIntroductionPart One Oscillatory Systems Used at Microwave Frequencies I. Some Data on Oscillatory Systems Used in Microwave Electronics 1. Introduction 2. Narrow-Band Oscillatory Systems — Cavity Resonators 3. Broad-Band Oscillatory Systems — Periodic Delay NetworksPart Two Fundamentals of Microwave Electronics II. Fundamental Electronic Phenomena at Microwave Frequencies 4. General Principles 5. Velocity Modulation 6. Ballistic Analysis of Election Bunching 7. Electron Bunching in a Field-Free Drift Space 8. Electron Bunching in a Constant Accelerating Field 9. Electron Bunching in a Uniform Retarding Field 10. Cascade Bunching of Electrons 11. Bunching of an Unmodulated Electron Beam in an Alternating Field 12. Electron Bunching in a Travelling Wave of Constant Amplitude 13. Electron Bunching in a Travelling Wave Varying Exponentially with Distance 14. Electron Bunching in a Travelling Wave with Crossed Electric and Magnetic Fields 15. Electron-Wave Analysis of Bunching III. Energy Exchange Between an Electron Beam and an Alternating Electric Field 16. Basic Equations 17. Calculation of the Interaction Power Between an Unmodulated Electron Beam and an Alternating Field 18. The Retarding-Field Diode 19. Interaction Between an Electron Beam and a Travelling Wave of Constant Amplitude 20. Interaction Between an Electron Beam and a Travelling Wave Varying Exponentially with Distance 21. Energy Exchange Between an Electron Beam and a Travelling Wave in Crossed Electric and Magnetic Fields 22. Differences Between Systems without Constant Fields (O-Type), and Systems with Constant Crossed Fields (M-type) 23. Interaction Between a Density-Modulated Electron Beam and an Alternating Electric Field 24. Electron-Wave Interaction Between Two Electron Streams 25. Electron-Wave Interaction in Crossed Electric and Magnetic Fields 26. Amplification of Space-Charge Waves by Varying the Beam Velocity 27. Amplification of Space-Charge Waves when the Electron Beom Moves Through a Resistive Medium (Resistive Amplification)Part Three Microwave Electron Devices IV. Equivalent Circuits of Microwave Electron Devices and the Fundamental Principles Adopted in Analysis 28. Introduction 29. Equivalent Circuit of Narrow-Band Microwave Devices 30. Analysis of Broad-Band Microwave Devices V. Microwave Electron Devices with Narrow-Band Oscillatory Circuits 31. Two-Resonator Klystron Amplifiers 32. Three-Resonator Klystrons 33. Klystron Frequency Multipliers 34. Two-Resonator Klystron Oscillators 35. Buffer-Klystron Oscillators 36. Single-Resonator Drift-Space Klystrons 37. Travelling-Wave Klystrons 38. Reflex-Klystron Oscillatois 39. Reflex-Klystron Frequency Multipliers 40. Electron-Beam Diodes 41. Magnetron Oscillators VI. Microwave Electron Devices with Broad-Band Oscillatory Circuits 42. Introduction 43. Travelling-Wave Amplifiers 44. Travelling-Wave Tubes with Resonant Outputs 45. Magnetron Amplifiers 46. Oscillators of the Travelling-Wave Tube Type 47. T.W.T. Oscillators with Internal Feedback 48. T.W.T. Oscillators with External Feedback 49. Backward-Wave T.W.T. Oscillators — Carcinotrons 50. O- and M-Type Backward-Wave Oscillators 51. Analysis of O-Type Backward-Wave Oscillators 52. Cascade Bunching of Electrons Applied to the Theory of Backwardwave Oscillators 53. Analysis of M-Type Backward-Wave Oscillators 54. Carmatrons 55. Electron Devices with E-Type Interaction VII. Microwave Devices with Electron-Wave Interaction 56. Twin-Beam Amplifiers (Electron-Wave Tubes) 57. M-Type Electron-Wave Tubes 58. Voltage-Jump Amplifiers 59. Amplifiers Based on the Effects of Resistance (Resistive Amplifiers) 60. Diocotron Oscillators 61. Electron-Wave Oscillators with a Retarding Field 62. Mitrons 63. StrophotronsBibliographyIndex