[1] [1] Dai Yimin, Li Yixin, Xu Ying, et al. Prediction of hail impact fce induced by windhail coupling based on GABP neural wk[JOL]. Engineering Mechanics, 110. http:engineeringmechanics.cncnarticledoi10.6052j.issn.10004750.2023.06.0449viewType=HTML.

[2] Yan Wenzhe, Li Qiang, Qu Pu, . Interior ballistic modeling and experimental study of gas gun[J]. Journal of Gun Launch & Control, 42, 87-90,96(2021).

[3] Meng Xueping, Lei Bin, Li Zhiyuan, . Influence of structure parameters of driving coil on the properties of reluctance launcher[J]. Journal of Magnetic Materials and Devices, 45, 32-35,48(2014).

[4] Zhao Jiaqi, Li Haitao, Wu Yanan, . Simulation and experiment of reluctance electromagnetic launcher based on bridge drive circuit[J]. High Voltage Engineering, 50, 1348-1355(2024).

[5] Deng Huimin, Wang Yu, Lu Falong, et al. Optimization of reluctance accelerator efficiency by an improved discharging circuit[J]. Defence Technology, 16, 662-667(2020).

[6] Yu Xinjie, Liu Xukun. Review of the meat grinder circuits for railguns[J]. IEEE Transactions on Plasma Science, 45, 1086-1094(2017).

[7] [7] Liebfried O, Brommer V, Snholz S. Development of XRAM generats as inductive power sources f very high current pulses[C]2013 Abstracts IEEE International Conference on Plasma Science. 2013: 1.

[8] Wang Jie, Lu Junyong, Zhang Xiao, . Discharge characteristics and optimization of two types of PFN modules[J]. Electric Machines and Control, 23, 10-18,27(2019).

[9] Li Zhenchao, Jin Chaoliang, Dai Ling, . Breakdown and protection of semiconductor device in a sequentially fired pulse forming network[J]. Acta Armamentarii, 38, 2348-2353(2017).

[10] [10] Zhao Keyi, Xiang Hongjun, Li Zhiyuan, et al. Optimum design of driving circuit parameters f magicresistance coil launcher[C]17th International Symposium on Electromagic Launch Technology. 2014: 15.

[11] [11] RivasCamacho J L, PonceSilva M, OlivaresPeregrino V H. Experimental results concerning to the effects of the initial position of the projectile on the conversion efficiency of a reluctance accelerat[C]13th International Conference on Power Electronics. 2016: 9297.

[12] Kim J, Ahn J. Modeling and optimization of a reluctance accelerator using DOE-based response surface methodology[J]. Journal of Mechanical Science and Technology, 31, 1321-1330(2017).

[13] Slade G W. A simple unified physical model for a reluctance accelerator[J]. IEEE Transactions on Magnetics, 41, 4270-4276(2005).

[14] Lu Junyong, Du Peipei, Feng Junhong, . Simulation study on critical velocity of electromagnetic rail launcher[J]. Proceedings of the CSEE, 39, 1862-1869(2019).

[15] Liang Chunyan, Xiang Hongjun, Yuan Xichao, et al. Reverse force suppression method of reluctance coil launcher based on consumption resistor[J]. IEEE Access, 9, 62770-62778(2021).

[16] Jing Baomi, Liao Tongqing, Jiang Tiezhen, . Dynamic research on multi-stage reluctance electromagnetic launcher[J]. Acta Scientiarum Naturalium Universitatis Nankaiensis (Natural Science Edition), 52, 55-59(2019).

[17] [17] Liu Yang. Modeling of coil type electromagic launcher analysis of influencing facts[D]. Wuhan: Huazhong University of Science Technology, 2020