• Journal of Infrared and Millimeter Waves
  • Vol. 41, Issue 1, 2021352 (2022)
Shao-Jie CHANG1、2, Zhen-Hua WU1、2、*, Jie HUANG1、2, Tao ZHAO1、2, Di-Wei LIU1、2, Min HU1、2、**, Yan-Yu WEI1、3, Yu-Bin GONG1、3, and Sheng-Gang LIU1、2
Author Affiliations
  • 1Terahertz Science and Technology Research Center,University of Electronic Science and Technology of China,Chengdu 610054,China
  • 2Key Laboratory of Terahertz Technology,Ministry of Education,Chengdu 610054,China
  • 3National Key Laboratory of Science and Technology on Vacuum Electronics,University of Electronic Science and Technology of China,Chengdu 610054,China
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    DOI: 10.11972/j.issn.1001-9014.2022.01.005 Cite this Article
    Shao-Jie CHANG, Zhen-Hua WU, Jie HUANG, Tao ZHAO, Di-Wei LIU, Min HU, Yan-Yu WEI, Yu-Bin GONG, Sheng-Gang LIU. The research progress of vacuum electron device in terahertz band[J]. Journal of Infrared and Millimeter Waves, 2022, 41(1): 2021352 Copy Citation Text show less
    The structure diagram of Backward Wave Oscillator
    Fig. 1. The structure diagram of Backward Wave Oscillator
    Improved structure processing and assembly of flatgrating
    Fig. 2. Improved structure processing and assembly of flatgrating
    The schematic diagram of 1 THz Backward Wave Amplifier
    Fig. 3. The schematic diagram of 1 THz Backward Wave Amplifier
    The schematic diagram of the structure of 1 THz Backward Wave Amplifier and its processing and assembly conditions
    Fig. 4. The schematic diagram of the structure of 1 THz Backward Wave Amplifier and its processing and assembly conditions
    The schematic diagram of the radial electron beam Backward Wave Oscillator structure and eigenmode field distribution
    Fig. 5. The schematic diagram of the radial electron beam Backward Wave Oscillator structure and eigenmode field distribution
    Novel terahertz spiral interaction structure
    Fig. 6. Novel terahertz spiral interaction structure
    Folded waveguide interaction structure,quasi-parallel flat-plate interaction structure and staggered double-grating interaction structure
    Fig. 7. Folded waveguide interaction structure,quasi-parallel flat-plate interaction structure and staggered double-grating interaction structure
    Novel interaction structure Backward Wave Oscillator
    Fig. 8. Novel interaction structure Backward Wave Oscillator
    Structure and experiment of Pseudospark Backward Wave Oscillator
    Fig. 9. Structure and experiment of Pseudospark Backward Wave Oscillator
    The schematic diagram of Traveling Wave Tube
    Fig. 10. The schematic diagram of Traveling Wave Tube
    High-power Traveling Wave Tube in different bands
    Fig. 11. High-power Traveling Wave Tube in different bands
    Two solutions for high-power Traveling Wave Tube
    Fig. 12. Two solutions for high-power Traveling Wave Tube
    0.34 THz folded waveguide Traveling Wave Tube
    Fig. 13. 0.34 THz folded waveguide Traveling Wave Tube
    Novel structure Traveling Wave Tube
    Fig. 14. Novel structure Traveling Wave Tube
    1 THz spiral slow-wave structure based on self-guided assembly of nano-membrane devices
    Fig. 15. 1 THz spiral slow-wave structure based on self-guided assembly of nano-membrane devices
    Folded waveguide harmonic Traveling Wave Tube
    Fig. 16. Folded waveguide harmonic Traveling Wave Tube
    Trapezoidal interaction structure Extended Interaction Oscillator
    Fig. 17. Trapezoidal interaction structure Extended Interaction Oscillator
    Folded waveguide Extended Interaction Oscillator
    Fig. 18. Folded waveguide Extended Interaction Oscillator
    0.264 THz Extended Interaction Oscillator
    Fig. 19. 0.264 THz Extended Interaction Oscillator
    Structure and dispersion of harmonic Extended Interaction Oscillator
    Fig. 20. Structure and dispersion of harmonic Extended Interaction Oscillator
    G-band and W-band Extended Interaction Klystron
    Fig. 21. G-band and W-band Extended Interaction Klystron
    Banded electron beam W-band Extended Interaction Klystron
    Fig. 22. Banded electron beam W-band Extended Interaction Klystron
    Photonic crystal Extended Interaction Klystron
    Fig. 23. Photonic crystal Extended Interaction Klystron
    Unequal-length Slots interaction structure
    Fig. 24. Unequal-length Slots interaction structure
    The schematic diagram of Gyrotron structure
    Fig. 25. The schematic diagram of Gyrotron structure
    Pulsed magnetic field Gyrotron
    Fig. 26. Pulsed magnetic field Gyrotron
    500 GHz second harmonic Gyrotron
    Fig. 27. 500 GHz second harmonic Gyrotron
    Gyrotron system for different application scenarios
    Fig. 28. Gyrotron system for different application scenarios
    Innovative structure Gyrotron and Gyrotron amplifier
    Fig. 29. Innovative structure Gyrotron and Gyrotron amplifier
    Two types of W-band spatial harmonic Magnetrons
    Fig. 30. Two types of W-band spatial harmonic Magnetrons
    Spatial harmonic Magnetrons in terahertz band
    Fig. 31. Spatial harmonic Magnetrons in terahertz band
    The schematic diagram of Clinotron
    Fig. 32. The schematic diagram of Clinotron
    Processing and assembly of 0.26 THz Clinotron
    Fig. 33. Processing and assembly of 0.26 THz Clinotron
    Experimental research of 0.346 THz Clinotron
    Fig. 34. Experimental research of 0.346 THz Clinotron
    W-band Orotron schematic and experimental diagram
    Fig. 35. W-band Orotron schematic and experimental diagram
    The schematic diagram of super-radiation Orotron structure
    Fig. 36. The schematic diagram of super-radiation Orotron structure
    The schematic and assembly diagram of super-radiant Orotron
    Fig. 37. The schematic and assembly diagram of super-radiant Orotron
    The schematic diagram of the interaction structure and experimental results of super-radiant Orotron
    Fig. 38. The schematic diagram of the interaction structure and experimental results of super-radiant Orotron
    The structure and simulation results of special type super-radiant Orotron
    Fig. 39. The structure and simulation results of special type super-radiant Orotron
    Shao-Jie CHANG, Zhen-Hua WU, Jie HUANG, Tao ZHAO, Di-Wei LIU, Min HU, Yan-Yu WEI, Yu-Bin GONG, Sheng-Gang LIU. The research progress of vacuum electron device in terahertz band[J]. Journal of Infrared and Millimeter Waves, 2022, 41(1): 2021352
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