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Design and preliminary test of a 105/140 GHz dual-frequency MW-level gyrotron

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【作者】 胡林林孙迪敏黄麒力卓婷婷马国武蒋艺龚胜刚曾造金郭子星杜朝海李繁宏陈洪斌孟凡宝马弘舸

【Author】 Linlin HU;Dimin SUN;Qili HUANG;Tingting ZHUO;Guowu MA;Yi JIANG;Shenggang GONG;Zaojin ZENG;Zixing GUO;Chaohai DU;Fanhong LI;Hongbin CHEN;Fanbao MENG;Hongge MA;Institute of Applied Electronics, Academy of Engineering Physics;Peking University;

【机构】 Institute of Applied Electronics, Academy of Engineering PhysicsPeking University

【摘要】 A dual-frequency(105/140 GHz) MW-level continuous-wave gyrotron was developed for fusion application at Institute of Applied Electronics, China Academy of Engineering Physics. This gyrotron employs a cylindrical cavity working in the TE18,7 mode at 105 GHz and the TE24,9 mode at 140 GHz. A triode magnetron injection gun and a built-in quasi-optical mode converter were designed to operate at these two frequencies. For the proof-test phase, the gyrotron was equipped with a single-disk boron nitride window to achieve radio frequency output with a power of~500 k W for a short-pulse duration. In the preliminary short-pulse proof-test in the first quarter of2021, the dual-frequency gyrotron achieved output powers of 300 k W at 105 GHz and 540 k W at140 GHz, respectively, under 5 Hz 1 ms continuous pulse-burst operations. Power upgrade and pulse-width extension were hampered by the limitation of the high-voltage power supply and output window. This gyrotron design was preliminarily validated.

【Abstract】 A dual-frequency(105/140 GHz) MW-level continuous-wave gyrotron was developed for fusion application at Institute of Applied Electronics, China Academy of Engineering Physics. This gyrotron employs a cylindrical cavity working in the TE18,7 mode at 105 GHz and the TE24,9 mode at 140 GHz. A triode magnetron injection gun and a built-in quasi-optical mode converter were designed to operate at these two frequencies. For the proof-test phase, the gyrotron was equipped with a single-disk boron nitride window to achieve radio frequency output with a power of~500 k W for a short-pulse duration. In the preliminary short-pulse proof-test in the first quarter of2021, the dual-frequency gyrotron achieved output powers of 300 k W at 105 GHz and 540 k W at140 GHz, respectively, under 5 Hz 1 ms continuous pulse-burst operations. Power upgrade and pulse-width extension were hampered by the limitation of the high-voltage power supply and output window. This gyrotron design was preliminarily validated.

【基金】 supported in part by NSAF (No. U1830201);in part by the State Administration of Science, Technology and Industry for Nation Defense of China, Technology Foundation Project (No. JSJL2019212B006);in part by the Academy Innovation Funder (No. CX2020038);in part by the National Defense Basic Scientific Research Program (No. 2018212C015)
  • 【文献出处】 Plasma Science and Technology ,等离子体科学和技术(英文版) , 编辑部邮箱 ,2022年03期
  • 【分类号】TL542
  • 【下载频次】9
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