Description
Andrey D. Grigoriev graduated from Leningrad Electrotechnical Institute (LETI) in 1960 as electronics engineer. He received the PhD degree in Microwave electronics in 1967 and the Doctor of technical science degree in 1985. A.D. Grigoriev is working in LETI as assistant professor and professor, delivering lectures on electrodynamics, microwave technique and microwave electronics. He works also at “Svetlana” JSC as a consultant. Professor Grigoriev is the author of more than 150 publications, including 4 monographies: “Microwave cavities and slow-wave structures” (1984), “Electrodynamics and microwave technique”, “Methods of computational electrodynamics” (2012) and “Microwave electronics” (2016). He is a member of the editorial board of several Russian and international magazines. Vyacheslav A. Ivanov graduated from St Petersburg Electrotechnical University (“LETI”) in 1970. He became Associate Professor in 1980. his scientific interest is in the field of computer modeling of microwave tubes, In 1981-1982 he had a scientific research stay in Sweden. His activities concern microwave transistors and development of industrial microwave plants. Since 1970 he lectures on Microwave Electronics. He wrote 15 textbooks and has 23 patents of the Russian Federation. Sergey I. Molokovsky graduated from LETI in 1953. He received the PhD and Doctor degrees in the field of microwave electronics. He is professor of Radio electronics department of the LETI. He is author of the book “Intense electron and ion beams”. Professor Molokovsky was UNESCO expert. He authored about 150 scientific papers and 5 scientific monographs. Preface Introduction Main notations Part 1. Physical bases of microwave electronics Chapter 1. History of microwave electronics Chapter 2. Basic laws of microwave electronics Chapter 3. Oscillations and waves in charged particles beams Chapter 4. Charged particle interaction with alternating electromagnetic field Chapter 5. Microwave device as an element of a microwave circuit Part 2. Vacuum electron devices Chapter 6. Power grid tubes Chapter 7. O-type microwave device Chapter 8. M-type microwave devices Chapter 9. Gyro-resonance devices Chapter 10. Relativistic device Part 3. Solid-state microwave devices Chapter 11. Main functional elements of solid state devices Chapter 12. Diodes with positive dynamic impedance Chapter 13. Diodes with negative dynamic impedance Chapter 14. Microwave transistors0 A ppendixes Appendix 1. Time and space intervals characterized charged particles transport processes Appendix 2. Electron-optical systems of microwave devices Appendix 3. Electromagnetics systems of microwave devices Literature
