[1] Ferguson D[J]. 31st Aerospace Sciences Meeting, 705(1993).

[2] Wang L[J]. Vac. Cryogenics, 1, 2(1995).

[3] Wang L, Qin X G[J]. Vac. Cryogenics, 8, 2(2002).

[4] Ch J Mateo-Velez, Sarrail H P, Roussel J F[J]. Technical Manual of SPIS Final Report FR 10/14511 DESP(2010).

[5] Whipple E C, Krinsky I S, Torbert R B, Olsen R C[J]. Spacecraft Plasma Interactions and Their Influence on Field and Particle Measurements, Proceedings of the 17th ESLAB Symposium, 35(1983).

[6] Reasoner D L, Lennartsson W, Chappell C R[J]. Spacecraft Charging by Magnetospheric Plasmas, 47, 89(1976).

[7] Pang Y J[J]. M. S. Thesis(2001).

[8] Tian L C, Shi H, Li J, Zhang T P[J]. Spacecraft Environ. Eng., 29, 2(2012).

[9] Yang F, Shi L Q, Liu S Q, Gong J C[J]. Chin. J. Spac. Sci., 31, 4(2011).

[10] Schmidt R, Arends H, Pedersen A, Rüdenauer F, Fehringer M, Narheim B T, Svenes R, Kvernsveen K, Tsuruda K, Mukai T, Hayakawa H, Nakamura H M[J]. JGR: Space Physics, 100, A9(1995).

[11] Riedler W, Torkar K, Rüdenauer F, Fehringer M, Pedersen A, Schmidt R, Grard J L, Arends H, Narheim B T, Troim J, Torbert R, Olsen R C, Whipple E, Goldstein R, Valavanoglou N, Zhao H[J]. The Cluster and Phoenix Missions, 79, 271(1997).

[12] Pedersen A, Chapell C R, Knott K, Olsen R C[J]. Spacecraft Plasma Interactions and Their Influence on Field and Particle Measurements, Proceedings of the 17th ESLAB Symposium ESA SP-198, 185(1983).

[13] Zhang G R, Ke J X, Xu B[J]. Comput. Simul., 9, 38(2014).

[14] Yuan Q Y, Sun Y W[J]. J. Hebei Normal Univ.: Nat. Sci. Ed., 1, 38(2015).

[15] Yang J, Chen X X, Xia S H[J]. Micronanoelectronic Technol., 44, 7(2007).

[16] Jiang C H, Zhao Z Y[J]. Spacecraft Environ. Eng., 25, 2(2008).

[17] Gu C C, Chen X N, Lin C[J]. Microcomputer & Its Applications, 36, 11(2017).

[18] Zhu J C, Fang M H, Wu M Z, Tian P Y, Fei T[J]. Chin. J. Vac. Technol., 38, 6(2018).

[19] Ferro O J, Hess S, Seran E, Denis P[J]. IEEE Trans. Plasma Sci., 46, 3(2018).

[20] Galgani G, Antonelli M, Bandinelli M, Scione E, Scorzafaval E[J]. Esa Workshop on Aerospace Emc. IEEE, 89(2016).

[21] Chen Y F, Yang S S, Li D T, Qin X G, Wang J, Liu Q[J]. Atom. Energ. Sci. Technol., 49, 1673(2015).

[22] Kuznetsova I A, Hessb S L G, Zakharova A V, Ciprianic F, Serand E, Popela S I, Lisine E A, Petrove O F, Dolnikova G G, Lyasha A A, Kopnina K I[J]. Planet. Space Sci., 156, 62(2018).

[23] Zhao C X, Li D T, Yang S S, Qin X G, Wang J[J]. High Voltage Eng., 43, 1438(2017).

[24] Bi J Y, Li L[J]. Chin. J. Space Sci., 38, 909(2018).

[25] Zhu J C, Fang M H, Quan R H, Tian P Y, Liang E T[J]. J. Nanjing Univ. Aeronaut. Astronautics, 50, 422(2018).

[26] Garrett H B[J]. Rev. Geophys. Space Phys., 19, 4(1981).

[27] Smith H M, Langmuir I[J]. Phys. Rev., 28, 4(1926).

[28] Bernstein I B, Rabinowitz I[J]. Phys. Fluids, 2, 2(1959).

[29] Laframboise J G[J]. University  of  Toronto,  Institute  for Aerospace Studies, UTIAS Report No. 100(1966).

[30] Chen F F[J]. Plasma Phys., 7, 1(1965).

[31] Mai S L, Wang L, Li K, Qin X G[J]. Vac. Cryogenics, 12, 2(2006).

[32] Wang S Z[J]. Sci. Technol. Innov., 8, 14(2019).

[33] Wang S Z, Huang J G, Jiang L X, Wang J W[J]. Environ. Technol., 4, 18(2019).

[34] Chen Y F, Yang S S, Li D T, Qin X G, Shi L, Feng N[J]. Mod. Appl. Phys., 5, 3(2014).

[35] Yang J, Chen X X, Zhou J, Xia S H[J]. J. Astronautics, 31, 531(2010).