[1] Benfd J, Swegle J A, Schamiloglu E. High power microwaes[M]. 3rd ed. London: Tayl & Francis Group, 2015.

[2] Walter J W, Lynn C F, Dickens J C. Operation of a sealed-tube-vircator high-power-microwave source[J]. IEEE Trans Plasma Science, 40, 1618-1621(2012).

[3] Mesyats G A. Cathode phenomena in a vacuum disge: The breakdown, the spark the arc[M]. Moscow: Nauka, 2000.

[4] Nunally W C. High-power microwave generation using optically activated semiconductor switches[J]. IEEE Trans Electron Devices, 37, 2439-2448(1990).

[5] Krasik Y E, Yarmolich D, Gleizer J Z. Pulsed plasma electron sources[J]. Physics of Plasmas, 16, 7103(2009).

[6] Shiffler D, Haworth M, Cartwright K. Review of cold cathode research at the Air Force Research Laboratory[J]. IEEE Trans Plasma Science, 36, 718-728(2008).

[7] Levine J S, Harteneck B D. Repetitively pulsed relativistic klystron amplifier[J]. Applied Physics Letter, 65, 2133-2135(1994).

[9] Wang Yuan, Jiang Xiaoguo, Yang Guojun. Time-resolved energy spectrum measurement of a linear induction accelerator with the magnetic analyzer[J]. Chinese Physics C, 39, 017004(2015).

[15] Jiang Xiaoguo, Wang Yuan, Zhang Kaizhi. Instantaneous electron beam emittance measurement system based on the optical transition radiation principle[J]. Chinese Physics C, 38, 017002(2014).

[16] Jiang Xiaoguo, Wang Yuan, Yang Zhiyong. Time-resolved measurement technique for pulsed electron beam envelope basing on framing and streaking principle[J]. Chinese Physics C, 40, 017003(2016).