[1] Chu H C, Jeng S K, Chen C H. Reflection and transmission characteristics of lossy periodic composite structures[J]. IEEE Trans Antennas Propagation, 1996, 44(3):580-587.
[2] Evans R W. Design guidelines for shielding effectiveness, current carrying capability, and the enhancement of conductivity of composite materials[R]. NASA Contractor Report, No. 4784, 1997.
[3] Rosa I M D, Sarasini F, Sarto M S, et al. EMC impact of advanced carbon fiber/carbon nanotube reinforced composites for next-generation aerospace applications[J]. IEEE Trans Electromagnetic Compatibility, 2008, 50(3):556-563.
[4] Leininger M, Thurecht F, Ruddle A. Advanced grounding methods in the presence of carbon fiber reinforced plastic structures[C]//2012 ESA Workshop on Aerospace EMC. 2012:1-6.
[5] Cabello M R, Fernandez S, Pous M, et al. SIVA UAV: A case study for the EMC analysis of composite air vehicles[J]. IEEE Trans Electromagnetic Compatibility, 2017, 59(4):1103-1113.
[6] Dawson J F, Austin A N, Flintoft I D, et al. Shielding effectiveness and sheet conductance of nonwoven carbon-fiber sheets[J]. IEEE Trans Electromagnetic Compatibility, 2017, 59(1):84-92.
[7] Holloway C L, Sarto M S, Johansson M. Analyzing carbon-fiber composite materials with equivalent-layer models[J]. IEEE Trans Electromagnetic Compatibility, 2005, 47(4):833-844.
[8] Qi Jiaran, Wang Nannan, Xiao Shanshan. Removing Fabry-Pérot artifacts for electromagnetic homogenization of lossless and lossy dielectric composite based on scattering parameters[J]. IEEE Trans Dielectrics and Electrical Insulation, 2017, 24(3):1852-1859.
[9] Cordill B D, Seguin S A, Ewing M S. Shielding effectiveness of carbon-fiber composite aircraft using large cavity theory[J]. IEEE Trans Instrumentation and Measurement, 2013, 62(4):743-751.
[10] Rath V, Panwar V. Electromagnetic interference shielding analysis of conducting composites in near- and far-field region[J]. IEEE Trans Electromagnetic Compatibility, 2018, 60(6):1795-1801.
[11] Vas J V, Thomas M J. Electromagnetic shielding effectiveness of layered polymer nanocomposites[J]. IEEE Trans Electromagnetic Compatibility, 2018, 60(2):376-384.
[12] Jazzar A, Clavel E, Meunier G. Study of lightning effects on aircraft with predominately composite structures[J]. IEEE Trans Electromagnetic Compatibility, 2014, 56(3):675-682.
[13] Smorgonskiy A, Rachidi F, Rubinstein M, et al. Are standardized lightning current waveforms suitable for aircraft and wind turbine blades made of composite materials [J]. IEEE Trans Electromagnetic Compatibility, 2017, 59(4):1320-1328.
[14] Huang Liyang, Gao Cheng, Guo Fei, et al. Lightning indirect effects on helicopter: numerical simulation and experiment validation[J]. IEEE Trans Electromagnetic Compatibility, 2017, 59(4):1171-1179.
[17] Leone M, Mantzke A. A Foster-type field-to-transmission line coupling model for broadband simulation[J]. IEEE Trans Electromagnetic Compatibility, 2014, 56(6):1-8.
[18] Otsuyama T, Naganawa J, Honda J, et al. Measuring signal environment in the aircraft surveillance frequency by flight experiments[C]//2018 International Symposium on Electromagnetic Compatibility. 2018:44-47.
[19] Tesche F M, Ianoz M V, Karlsson T. EMC analysis methods and computational models[M]. New York: Wiley, 1997.