[1] Cui H X, Zhang J, Geng Y H et al. Space-air-ground integrated network (SAGIN) for 6G: requirements, architecture and challenges[J]. China Communications, 19, 90-108(2022).

[2] Nauerth S, Moll F, Rau M et al. Air-to-ground quantum communication[J]. Nature Photonics, 7, 382-386(2013).

[3] Liu H Y, Tian X H, Gu C S et al. Optical-relayed entanglement distribution using drones as mobile nodes[J]. Physical Review Letters, 126, 020503(2021).

[4] Xue Y, Chen W, Wang S et al. Airborne quantum key distribution: a review[J]. Chinese Optics Letters, 19, 122702(2021).

[5] Xu M, Zhang J Z, Dong H. Mean flow aero-optic effect of airborne optical platform[J]. Proceedings of SPIE, 9255, 92553R(2015).

[6] Siegenthaler J, Jumper E, Gordeyev S. Atmospheric propagation vs. aero-optics[C], 1076(2008).

[7] Wang S R, Fu B, Chen J Z et al. Research progress on the aero-optical effects around a hemisphere-on-cylinder turret[J]. Laser & Optoelectronics Progress, 61, 1300007(2024).

[8] E Y J, Wang T Y, Gao G et al. Aerothermal dynamic failure of infrared window in high-speed aircraft[J]. Advances in Mechanics, 48, 148-211(2018).

[9] Jumper E J, Fitzgerald E J. Recent advances in aero-optics[J]. Progress in Aerospace Sciences, 37, 299-339(2001).

[10] Jumper E J, Gordeyev S. Physics and measurement of aero-optical effects: past and present[J]. Annual Review of Fluid Mechanics, 49, 419-441(2017).

[11] Ding H L, Yi S H, Xu Y et al. Recent developments in the aero-optical effects of high-speed optical apertures: from transonic to high-supersonic flows[J]. Progress in Aerospace Sciences, 127, 100763(2021).

[12] Cao C M, Liu Z, Zhang S et al. Influence of aero-optical effect on laser communication of aircraft platforms[J]. Laser & Optoelectronics Progress, 61, 0706017(2024).

[13] Butler L N, Gordeyev S, Lynch K P et al. Development of a spatially filtered wavefront sensor as an aero-optical measurement technique[C], 3123(2021).

[14] Shotorban B, Zhang M K, Zhang S J. Aero optical effects over a cylindrical turret[C], 3125(2021).

[15] Xie J Y, Bai L, Wang Y K et al. Influence of refractive index accurate model of supersonic vehicle window flow field on aero-optical characteristics[J]. Optik, 252, 168524(2022).

[16] Zhang T X, Hong H Y, Zhang X Y[M]. Aero-optical effect correction: principle, method and application(2014).

[17] Lee S, Lee B J, Jeung I S. Wavefront distortion due to the shock wave and boundary layer in the supersonic flow over a compression ramp[J]. Aerospace Science and Technology, 110, 106489(2021).

[18] Miranda F A, Tedder S A, Vyhnalek B E et al. An overview of key optical communications technologies under development at the NASA Glenn Research Center[J]. Proceedings of SPIE, 11692, 116920X(2021).

[19] Meng L X, Zhang L Z, Li X M et al. Airborne laser communication technology and flight test[J]. Proceedings of SPIE, 9795, 97950E(2015).

[20] Porter C, Gordeyev S, Zenk M et al. Flight measurements of aero-optical distortions from a flat-windowed turret on the Airborne Aero-Optics Laboratory (AAOL)[C], 3280(2011).

[21] Wayne D T, Phillips R L, Andrews L C et al. Observation and analysis of aero-optic effects on the ORCA laser communication system[J]. Proceedings of SPIE, 8038, 80380A(2011).

[22] Gordeyev S, Post M L, McLaughlin T et al. Aero-optical environment around a conformal-window turret[J]. AIAA Journal, 45, 1514-1524(2007).

[23] Wang K, Wang M. Computational analysis of aero-optical distortions by flow over a cylindrical turret[J]. AIAA Journal, 54, 1461-1471(2016).

[24] Whiteley M R, Goorskey D J. Imaging performance with turret aero-optical wavefront disturbances[J]. Optical Engineering, 52, 071410(2013).

[25] Tian R Z, Xu H Y, Dong Q L et al. Numerical investigation of aero-optical effects of flow past a flat-windowed cylindrical turret[J]. Physics of Fluids, 32, 056103(2020).

[26] Vukasinovic B, Glezer A, Gordeyev S et al. Active control and optical diagnostics of the flow over a hemispherical turret[C], 598(2008).

[27] Vukasinovic B, Glezer A, Gordeyev S et al. Fluidic control of a turret wake, part I: aerodynamic effects[C], 816(2009).

[28] Gordeyev S, Jumper E. Fluid dynamics and aero-optics of turrets[J]. Progress in Aerospace Sciences, 46, 388-400(2010).

[29] Li G C[M]. Aero-optics(2006).

[30] Mahajan V N. Strehl ratio for primary aberrations in terms of their aberration variance[J]. Journal of the Optical Society of America, 73, 860-861(1983).

[31] Sutton G W. Aero-optical foundations and applications[J]. AIAA Journal, 23, 1525-1537(1985).

[32] Gierloff J, Robertson S, Bouska D. Computer analysis of aero-optic effects[C], 2794(1992).

[33] Jones M, Bender E. CFD-based computer simulation of optical turbulence through aircraft flowfields and wakes[C], 2798(2001).

[34] Shi K T, Ma H D. Progress in computational aero-optics[J]. Acta Aerodynamica Sinica, 37, 186-192(2019).

[35] Zhao X H, Yi S H, Ding H L. Experimental study on the influence of attitude angle on the aero-optical effects of a hypersonic optical dome[J]. Optik, 201, 163448(2020).

[36] Ding H L, Yi S H, Zhu Y Z et al. Experimental investigation on aero-optics of supersonic turbulent boundary layers at different light incident angles[J]. Acta Physica Sinica, 66, 244201(2017).

[37] Zhu Y Z. Experimental investigation on supersonic flow over an optical dome with backward facing step and its aero-optical effects[D](2015).

[38] Zhu Y Z, Yi S H, Kong X P et al. Fine structures and characteristics on supersonic flow over backward facing step with tangential injection[J]. Acta Physica Sinica, 64, 064701(2015).

[39] Zhu Y Z, Yi S H, Gang D D et al. Visualisation on supersonic flow over backward-facing step with or without roughness[J]. Journal of Turbulence, 16, 633-649(2015).

[40] Ding H L, Yi S H, Fu J et al. Experimental investigation on aero-optical aberration of shock wave/boundary layer interactions[J]. Proceedings of SPIE, 10155, 101551V(2016).

[41] Zhu Y Z, Yi S H, Chen Z et al. Visualization of flow structures around a spherical cone with supersonic film cooling based on NPLS[J]. Energy Education Science and Technology Part A: Energy Science and Research, 30, 537-544(2012).

[42] Tian L F. Mechanism study of fine structures and aero-optical effects of supersonic flow around an optical dome[D](2011).

[43] Tian L F, Yi S H, Zhao Y X et al. Study of density field measurement based on NPLS technique in supersonic flow[J]. Science in China Series G: Physics, Mechanics and Astronomy, 52, 1357-1363(2009).

[44] Gao Q. Aero-optical effects of the supersonic shear layers[D](2012).

[45] Sun X W, Liu W. Research progress of aero-optical effect[J]. Advances in Mechanics, 50, 249-309(2020).

[46] Southwell W H. Ray tracing in gradient-index media[J]. Journal of the Optical Society of America, 72, 908-911(1982).

[47] Sutton G W. Effect of turbulent fluctuations in an optically active fluid medium[J]. AIAA Journal, 7, 1737-1743(1969).

[48] Wang M, Mani A L, Gordeyev S. Physics and computation of aero-optics[J]. Annual Review of Fluid Mechanics, 44, 299-321(2012).

[49] Buckner A, Gordeyev S, Jumper E. Optical aberrations caused by transonic attached boundary layers: underlying flow structure[C], 752(2005).

[50] Wyckham C M, Smits A J. Aero-optic distortion in transonic and hypersonic turbulent boundary layers[J]. AIAA Journal, 47, 2158-2168(2009).

[51] Cress J, Gordeyev S, Jumper E. Aero-optical measurements in a heated, subsonic, turbulent boundary layer[C], 434(2010).

[52] Gordeyev S, Jumper E, Hayden T E. Aero-optical effects of supersonic boundary layers[J]. AIAA Journal, 50, 682-690(2012).

[53] Yang B, Fan Z C, Yu H. Aero-optical effects simulation technique for starlight transmission in boundary layer under high-speed conditions[J]. Chinese Journal of Aeronautics, 33, 1929-1941(2020).

[54] Ross T S. Limitations and applicability of the maréchal approximation[J]. Applied Optics, 48, 1812-1818(2009).

[55] Steinmetz W J. Second moments of optical degradation due to a thin turbulent layer[EB/OL]. https://ntrs.nasa.gov/citations/19800017100

[56] Noll R J. Zernike polynomials and atmospheric turbulence[J]. Journal of the Optical Society of America, 66, 207-211(1976).

[57] Ren X L. Aero-optical effect and suppression techniques of large aperture optical system[D](2019).

[58] Burns W R, Jumper E J, Gordeyev S. A latency-tolerant architecture for airborne adaptive optic systems[C], 0679(2015).

[59] Sinha N, Arunajatesan S, Seiner J et al. Large eddy simulation of aero-optic flowfields and flow control application[C], 2448(2004).

[60] Smith A E, Gordeyev S. Aero-optical mitigation of turbulent boundary layers using large-eddy break-up devices[C], 0321(2014).

[61] Gordeyev S, Burns R, Jumper E et al. Aero-optical mitigation of shocks around turrets at transonic speeds using passive flow control[C], 717(2013).

[62] Gordeyev S, Jumper E, Vukasinovic B et al. Fluidic control of a turret wake, part II: aero-optical effects[C], 817(2009).

[63] Vukasinovic B, Gissen A, Glezer A et al. Fluidic control of transonic shock-induced separation[C], 529(2013).

[64] Gordeyev S, Cress J A, Smith A et al. Aero-optical measurements in a subsonic, turbulent boundary layer with non-adiabatic walls[J]. Physics of Fluids, 27, 045110(2015).

[65] Sun X W, Yang X L, Liu W. Aero-optical suppression for supersonic turbulent boundary layer[J]. Journal of Turbulence, 22, 1-25(2021).

[66] Zheng Y, Wang X H, Deng L et al. Experimental investigation of segmented adaptive optics for spatial laser array in an atmospheric turbulence condition[J]. Optics Communications, 284, 4975-4982(2011).

[67] Nightingale A, Gordeyev S, Jumper E et al. Regularizing shear layer for adaptive optics control applications[C], 4774(2005).

[68] Nightingale A, Duffin D, Lemmon M et al. Adaptive-optic correction of a regularized compressible shear layer[C], 3072(2006).

[69] Abado S, Gordeyev S, Jumper E. Adaptive-optic system requirements to mitigate aero-optical aberrations as a function of viewing angle[J]. Optical Engineering, 53, 103103(2014).

[70] Siegenthaler J, Gordeyev S, Jumper E. Shear layers and aperture effects for aero-optics[C], 4772(2005).

[71] Guo G M, Luo Q. Modeling aero-optical wavefront of the forced supersonic mixing layer for adaptive-optic correction[J]. Optics Communications, 452, 48-55(2019).

[72] Guo G M, Liu H. Modeling spatial evolution of aero-optical wave front aberration caused by a supersonic mixing layer[J]. Optical Engineering, 56, 035102(2017).

[73] Burns R, Gordeyev S, Jumper E J et al. Estimation of aero-optical wavefronts using optical and non-optical measurements[C], 0319(2014).

[74] Andino M Y, Wallace R D, Glauser M N et al. Boundary feedback flow control: proportional control with potential application to aero-optics[J]. AIAA Journal, 49, 32-40(2011).

[75] Wallace R D, Shea P R, Glauser M N et al. Simulation-guided, model-based feedback flow control for a pitching turret[J]. AIAA Journal, 50, 1685-1696(2012).

[76] Goorskey D J, Schmidt J, Whiteley M R. Efficacy of predictive wavefront control for compensating aero-optical aberrations[J]. Optical Engineering, 52, 071418(2013).

[77] Brennan T J, Wittich D J. Statistical analysis of Airborne Aero-Optical Laboratory optical wavefront measurements[J]. Optical Engineering, 52, 071416(2013).

[78] Sahba S, Sashidhar D, Wilcox C C et al. Dynamic mode decomposition for aero-optic wavefront characterization[J]. Optical Engineering, 61, 013105(2022).

[79] Phillips R L, Andrews L C. FSO communications: atmospheric effects for an airborne backbone[J]. Proceedings of SPIE, 6951, 695102(2008).

[80] Moll F, Horwath J, Shrestha A et al. Demonstration of high-rate laser communications from a fast airborne platform[J]. IEEE Journal on Selected Areas in Communications, 33, 1985-1995(2015).

[81] Fuchs C, Schmidt C, Rödiger B et al. DLR’s free space experimental laser terminal for optical aircraft downlinks[J]. Proceedings of SPIE, 10096, 1009610(2017).

[82] Li X M, Zhang L Z, Meng L X et al. Research and experiment of pointing/acquisition/tracking system for airborne space laser communication[J]. Acta Armamentarii, 37, 1044-1051(2016).

[83] Gao T Y, Hu Y, Jiang H L et al. The effect of atmosphere boundary layer on airborne space laser communication and its compensation technology[J]. Acta Armamentarii, 36, 2278-2283(2015).

[84] Li X M, Zhang L Z, Meng L X. Airborne space laser communication system and experiments[J]. Proceedings of SPIE, 9795, 97950G(2015).

[85] Zhao Z Y, Tang Z S, Li L L. Research on airborne laser communication technology[C], 135-138(2013).

[86] Whiteley M R, Goorskey D J. Influence of aero-optical disturbances on acquisition, tracking, and pointing performance characteristics in laser systems[J]. Proceedings of SPIE, 8052, 805206(2011).

[87] Conrad R A. Impact of the boundary layer on pointing and tracking in airborne free-space laser communication links[EB/OL]. https://dspace.mit.edu/bitstream/handle/1721.1/44929/310357123-MIT.pdf

[88] Roth J M, Murphy R J, Wilcox W E et al. Experimental emulation of air-to-space laser communication links[C], 886-887(2008).

[89] Jumper E J, Gordeyev S, Cavalieri D et al. Airborne Aero-Optics Laboratory-Transonic (AAOL-T)[C], 0675(2015).

[90] Kalensky M. Airborne measurement of atmospheric induced beam jitter[D](2022).

[91] Gordeyev S, Kalensky M. Effects of engine acoustic waves on aerooptical environment in subsonic flight[J]. AIAA Journal, 58, 5306-5317(2020).

[92] Kalensky M, Gordeyev S, Jumper E J. In-flight studies of aero-optical distortions around AAOL-BC[C], 3253(2019).

[93] Gordeyev S, Cress J, Jumper E. Far-field laser intensity drop-outs caused by turbulent boundary layers[J]. Journal of Directed Energy, 5, 58-75(2013).

[94] Zhao J, Zhao S H, Zhao W H et al. Performance of mixed RF/FSO systems in exponentiated Weibull distributed channels[J]. Optics Communications, 405, 244-252(2017).

[95] Zhao J, Zhao S H, Zhao W H et al. Performance analysis for mixed FSO/RF Nakagami-m and Exponentiated Weibull dual-hop airborne systems[J]. Optics Communications, 392, 294-299(2017).

[96] Zhao H W, Hou T J, Zhu B et al. Design analysis for optical dome and scanning mirror[J]. Journal of Applied Optics, 31, 898-903(2010).

[97] Wang C, Jiang L, Tong S F et al. Influence of optical dome on airborne laser communication beam far-field divergence angle[J]. Laser & Optoelectronics Progress, 54, 040604(2017).

[98] Wang C, Zhang X, Qu H M et al. Sphere-cone-polynomial special window with good aberration characteristic[J]. Chinese Physics B, 22, 074212(2013).

[99] Zhao J, Zhao S H, Li Y J et al. Analysis about the influence of high altitude atmosphere turbulence on airborne laser communication[J]. Laser & Infrared, 47, 663-668(2017).

[100] Zhao J, Zhao S H, Zhao W H et al. Probability of fade for airborne laser communication system over exponentiated Weibull distribution under aperture averaging[J]. Optical Review, 25, 487-492(2018).

[101] Zhao J, Zhao S H, Zhao W H et al. Analysis of link performance and robustness of homodyne BPSK for airborne backbone laser communication system[J]. Optics Communications, 359, 189-194(2016).

[102] Zhao J, Zhao S H, Zhao W H et al. BER performance analysis of M-ary PPM over exponentiated Weibull distribution for airborne laser communications[J]. Journal of Optical Technology, 84, 658-663(2017).

[103] Meng L X, Wang C H, Qian C Z et al. Method of high speed flow field influence and restrain on laser communication[J]. Proceedings of SPIE, 8906, 890623(2013).

[104] Hu Y, Fu Y G, Jiang H L. The aero optics effect on near space laser communication optical system[J]. Proceedings of SPIE, 8906, 89062F(2013).

[105] Hu Y, Gao T Y, Cheng D W et al. The effect of the aero optic’s additional focal length on the airborne platform laser communication[J]. Proceedings of SPIE, 9465, 946513(2015).

[106] Jiang Y Y, Meng L X, Zhang L Z et al. Analysis of aerodynamic optical effects in airborne laser communication optical windows[J]. Infrared and Laser Engineering, 53, 20230680(2024).

[107] Pugh C J, Kaiser S, Bourgoin J P et al. Airborne demonstration of a quantum key distribution receiver payload[J]. Quantum Science and Technology, 2, 024009(2017).

[108] Wang J Y, Yang B, Liao S K et al. Direct and full-scale experimental verifications towards ground–satellite quantum key distribution[J]. Nature Photonics, 7, 387-393(2013).

[109] Chu Y, Donaldson R, Kumar R et al. Feasibility of quantum key distribution from high altitude platforms[J]. Quantum Science and Technology, 6, 035009(2021).

[110] Liu H Y, Tian X H, Gu C S et al. Drone-based entanglement distribution towards mobile quantum networks[J]. National Science Review, 7, 921-928(2020).

[111] Yu H C, Tang B Y, Chen H et al. Airborne quantum key distribution with boundary layer effects[J]. EPJ Quantum Technology, 8, 26(2021).

[112] Yu H C, Tang B Y, Li J H et al. Satellite-to-aircraft quantum key distribution performance estimation with boundary layer effects[J]. Chinese Optics Letters, 21, 042702(2023).

[113] Deng Z F, Yu H C, Tang J et al. Air-to-air quantum key distribution with boundary layer effects[J]. Results in Physics, 54, 107020(2023).

[114] Yu H C, Tang B Y, Ding H L et al. Airborne quantum key distribution performance analysis under supersonic boundary layer[J]. Entropy, 25, 472(2023).

[115] Liao S K, Cai W Q, Handsteiner J et al. Satellite-relayed intercontinental quantum network[J]. Physical Review Letters, 120, 030501(2018).

[116] Jumper E J. The story of the airborne aero-optics laboratory[J]. Proceedings of SPIE, 12239, 122390G(2022).