[1] NEUMANN G, BANZIGER U, KAMMEYER M et al. Plasma-density measurements by microwave interferometry and Langmuir probes in an rf discharge[J]. Review of Scientific Instruments, 64, 19-25(1993).

[2] BLEVINS J, FREDERICK R, COLEMAN H. An assessment of microwave measurement techniques in rocket exhaust applications[C](2015).

[4] DUAN J Z, HAN J F, WANG C L et al. Contribution of the dust grains to the damping of the electromagnetic waves propagating in plasma[J]. IEEE Transactions on Plasma Science, 41, 2434-2437(2013).

[6] KINEFUCHI K, FUNAKI I, ABE T. Frequency-dependent fdtd simulation of the interaction of microwaves with rocket-plume[J]. IEEE Transactions on Antennas and Propagation, 58, 3282-3288(2010).

[7] HE G, ZHAN Y, ZHANG J et al. Characterization of the dynamic effects of the reentry plasma sheath on electromagnetic wave propagation[J]. IEEE Transactions on Plasma Science, 44, 232-238(2016).

[8] SHUKLA P K, MAMUN A A. Introduction to dusty plasma physics[J]. Plasma Physics & Controlled Fusion, 44, 395-395(2002).

[9] PRUDSKIKH V V, SHCHEKINOV Y A. Electromagnetic waves in a polydisperse dusty plasma[J]. Physics of Plasmas, 20, 543-549(2013).

[10] BERNHARDT P A, BALLENTHIN J O, BAUMGARDNER J L. Ground and space-based measurement of rocket engine burns in the ionosphere[J]. IEEE Transaction on Plasma Science, 40, 1267-1286(2012).

[11] SCALES W A, MAHMOUDIAN A. Charged dust phenomena in the near earth space environment[J]. Physical Society, 79, 1-27(2016).

[15] JIA J, YUAN C, GAO R et al. Transmission characteristics of microwave in a glow-discharge dustyy plasma[J]. Physics of Plasmas (1994-present), 23, 073705(2016).

[18] FREDERICK R A, BLEVINS J A, COLEMAN H W. Investigation of microwave attenuation measurements in a laboratory-scale rocket motor plume[J]. Journal of Spacecraft & Rockets, 32, 923-925(2015).