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References
Index of NSAEBB [EB/OL] (10 Aug 2017) [20 Oct 2019] https://nsarchive2.gwu.edu/NSAEBB/NSAEBB434/docs
Xue H, Khawaja H, Moatamedi M (2014) Conceptual design of high speed supersonic aircraft: a brief review on SR-71 (blackbird) aircraft [C]. 10th international conference on mathematical problems in engineering. Aerospace and Sciences, Narvik, Norway
Merlin PW (2009) Design and development of the blackbird: Challenges and lessons learned [C]. 47th AIAA aerospace sciences meeting including the new horizons forum and aerospace exposition. Orlando, Florida, US
Sanger E (1942) Recent results in rocket flight technique [R]. National Advisory Committee for Aeronautics, Washington, DC
Launius RD, Jenkins DR (2012) Coming Home: reentry and recovery from space [M]. US Government Printing Office, Washington, DC
Hallion RP (2005) The history of hypersonics: or, Back to the future: again and again [C]. 43rd AIAA aerospace sciences meeting and exhibit. Reno, Nevada, US
Guan SY (2009) Progress of flight mechanics related to Prof. Qian XS [J]. Tactical Missile Technol (6):1–8. (in Chinese) (关世义. 钱学森与现代飞行力学. 战术导弹技术.)
Xuesen Q. Teaching graduate students at California institute of technology [EB/OL]. (1 Oct 2010) [20 Oct 2019]. http://www.cas.cn/zt/rwzt/qxsssyzn/sptj/201010/t20101031_3000086.html
FDL-6 Suborbital Maneuvering Vehicle (SOMV) (1975) [EB/OL]. [20 Oct 2019]. http://fantastic-plastic.com/fdl-6-suborbital-maneuvering-vehicle-somv-by-fantastic-plastic.html
Knudsen B (2017) An examination of US hypersonic weapon systems [R]. George Washington University, Washington, DC
Cui EJ (2009) Research statutes, development trends and key technical problems of near space flying vehicles [J]. Advan Mech 39(6):658–673. (in Chinese) (崔尔杰. 近空间飞行器研究发展现状及关键技术问题. 力学进展.)
Walker HS, Rodgers F (2005) Falcon hypersonic technology overview [C]. AIAA/CIRA 13th international space planes and hypersonics systems and technologies conference. Capua, Italy
Freeman DC, Reubush DE, McClinton CR et al (1997) The NASA hyper-X program [R]. International Astronautical Federation, Paris
McClinton CR, Rausch VL, Sitz J et al (2001) Hyper-X program status [C]. 39th aerospace sciences meeting and exhibit. Reno, Nevada, US
Leonard CP, Amundsen RM, Bruce WE (2005) Hyper-X hot structures design and comparison with flight data [C]. AIAA/CIRA 13th international space planes and hypersonics systems and technologies conference. Capua, Italy
Mercier RA, Ronald TMF (1998) Hypersonic technology (HyTech) program overview [C]. 8th AIAA international space planes and hypersonic systems and technologies conference. Norfolk, Virginia, U.S
Powell OA, Edwards JT, Norris RB et al (2001) Development of hydrocarbon-fueled scramjet engines: the hypersonic technology (HyTech) program [J]. J Propul Power 17(6):1170–1176
Richman MS, Kenyon JA, Sega RM (2005) High speed and hypersonic science and technology [C]. 41st AIAA/ASME/SAE/ASEE joint propulsion conference and exhibit. Tucson, Arizona, US
Walker SH, Sherk CJ, Shell D et al (2008) The DARPA/AF falcon program: the hypersonic technology vehicle #2 (HTV-2) flight demonstration phase [C]. 15th AIAA international space planes and hypersonic systems and technologies conference. Dayton, Ohio, US
Jorris TR (2014) Recent and on-going hypersonic, space transit, and space launch flight tests [C]. AIAA flight testing conference. Atlanta, Georgia, US
Schulz MC, Wetherall R (2011) Falcon hypersonic technology vehicle (HTV-2) [R]. DARPA, Arlington, Virginia
Zhen HP, Jiang CW (2013) Review of hypersonic technology verification vehicle HTV-2 [J]. Aerodyn Missile J (6):7–13. (in Chinese) (甄华萍, 蒋崇文. 高超声速技术验证飞行器HTV-2综述. 飞航导弹.)
ARPA engineering review board concludes review of HTV-2 second test flight [EB/OL]. (20 April 2012) [20 Oct 2019]. http://www.airplanesandrockets.com/resources/DARPAEngineering-Review-Board-HTV-2-Test-Flight.htm
Clark H. Labs technology launched in first test flight of army’s conventional advanced hypersonic weapon [EB/OL]. (18 May 2012) [21 Oct 2019]. https://www.sandia.gov/LabNews/120518.html
Malik T. US military blows up hypersonic weapon after failed test launch [EB/OL]. (26 Aug 2014) [21 Oct 2019]. https://www.space.com/26944-us-military-hypersonic-weapontest-explodes.html
Advanced hypersonic weapon [EB/OL]. [21 Oct 2019]. https://www.globalsecurity.org/military/systems/munitions/ahw.htm
Hank JM, Murphy JS, Mutzman RC (2008) The X-51A scramjet engine flight demonstration program [C]. 15th AIAA international space planes and hypersonic systems and technologies conference. Dayton, Ohio, US
Tang M, Chase RL (2008) The quest for hypersonic flight with air-breathing propulsion [C]. 15th AIAA international space planes and hypersonic systems and technologies conference. Dayton, Ohio, US
Li GZ, Yu TC, Lai ZH (2014) Development and thinking of the US hypersonic vehicle X-51A [J]. Aerodyn Missile J (5):5–8. (in Chinese) (李国忠, 于廷臣, 赖正华. 美国X-51A高超声速飞行器的发展与思考. 飞航导弹.)
Williams A. DARPA continues push toward high-speed aircraft with new integrated hypersonics program [EB/OL]. (10 July 2012) [21 Oct 2019]. https://newatlas.com/darpa-integrated-hypersonics-program-mach-20-x-plane/23243
Warwick G. Hypersonic X-Plane (HX)—DARPA tries again [EB/OL]. (24 Aug 2012) [21 Oct 2019]. https://wiki.nps.edu/display/CRUSER/2012/08/28/Hypersonic+X-Plane+%28HX%29+-+DARPA+Tries+Again
Anthony S. US military’s experimental hypersonic weapon explodes seconds after launch [EB/OL]. (26 Aug 2014) [22 Oct 2019]. https://www.extremetech.com/extreme/188675-usmilitarys-experimental-hypersonic-weapon-explodes-seconds-after-launch
Trevithick J. The B-52 looks set to become the USAF’s hypersonic weapons truck of choice [EB/OL]. (28 Aug 2018) [22 Oct 2019]. https://www.thedrive.com/the-war-zone/23200/the-b-52-looks-set-to-become-the-usafs-hypersonic-weapons-truck-of-choice
DARPA to launch test flight for two hypersonic weapons [EB/OL]. (07 May 2019) [22 Oct 2019]. http://en.c4defence.com/Agenda/darpa-to-launch-test-flight-for-twohypersonic-weapons/8140/1
Zhang Q (2016) Overview of global hypersonic air-breathing propulsion technology in 2015 [J]. Aerodyn Missile J (10):7–11. (in Chinese) (张茜. 2015年全球高超声速吸气式推进技术发展综述. 飞航导弹.)
Waters D (2015) DARPA perspective [R]. DARPA, Arlington, Virginia
Urban D (2016) The DARPA science and technology program [C]. India 17th annual science and engineering technology conference. Tampa, Florida, US
Arefyev KY, Kukshinov NV, Prokhorov AN (2019) Analysis of development trends of power-units for high-speed flying vehicles [J]. J Phys: Conf Ser 1147:012055
Ma N, Men WW, Wang ZQ et al (2017) Research and analysis of SR-72 hypersonic aircraft [J]. Aerodyn Missile J (1):14–20. (in Chinese) (马娜, 门薇薇, 王志强, 等. SR-72高超声速飞机研制分析. 飞航导弹.)
Norris G. Skunk works reveals SR-71 successor plan [EB/OL]. (01 Nov 2013) [22 Oct 2019]. https://aviationweek.com/technology/skunk-works-reveals-sr-71-successor-plan
Zhong Y, Liu DH, Wang C (2018) Research progress of key technologies for typical reusable launcher vehicles [C]. 2nd international conference on aerospace technology, communications and energy systems. Shanghai, China
Howell E. XS-1: DARPA’s experimental spaceplane [EB/OL]. (27 April 2018) [23 Oct 2019]. https://www.space.com/29287-xs1-experimental-spaceplane.html
Sponable J (2014) Experimental spaceplane (XS-1) [R]. Arlington, Virginia, DARPA
Wei HG, Lu YD, Li Q et al (2016) Reentry technique analysis of European IXV [J]. Spacecraft Eng 25(1):131–140. (in Chinese) (魏昊功, 陆亚东, 李齐, 等. 欧洲“过渡试验飞行器”再入返回技术综述. 航天器工程.)
Wang WJ, Li YY (2016) Study of European IXV and analysis of IXV flight test [J]. Space Int (1):78–82. (in Chinese) (王卫杰, 李怡勇. 欧洲“过渡型试验飞行器”研究与飞行试验情况分析. 国际太空.)
Tumino G, Mancuso S, Gallego JM et al (2016) The IXV experience, from the mission conception to the flight results [J]. Acta Astronaut 124:2–17
Mark H (2013) Progress on Skylon and SABRE [C]. 64th international astronautical congress. Beijing, China
Nie WS, Zhou SY, Lei X (2016) Research progress on synergetic air breathing rocket engine technology [J]. J Equipment Acad 27(16):57–64. (in Chinese) (聂万胜, 周思引, 雷旭. 协同吸气式火箭发动机研究进展. 装备学院学报.)
US Air Force confirms hypersonic SABRE engine feasible [EB/OL]. (20 April 2015) [23 Oct 2019]. https://www.nextbigfuture.com/2015/04/us-air-force-confirms-hypersonic-sabre.html
Sodhi C (2016) ZIRCON: the Russian hypersonic cruise missile [R]. Centre for Air Power Studies, New Delhi
Robinson JS, Martin JG, Bowles JV et al (2006) An overview of the role of systems analysis in NASA’s hypersonics project [C]. 14th AIAA/AHI space planes and hypersonic systems and technologies conference. Canberra, Australia
Schmisseur JD (2015) Hypersonic into the 21st century: a perspective on AFOSR-sponsored research in aerothermodynamics [J]. Prog Aerosp Sci 72:3–16
Li JF, Niu W, Li WJ (2013) Australia successfully completed the 5th test of HIFiRE [J]. Aerodyn Missile J (1):14–16. (in Chinese) (李婧芳, 牛文, 李文杰. 澳大利亚成功完成HIFiRE的第5次试验. 飞航导弹.)
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Du, S. et al. (2023). Research in China and Abroad. In: Du, S. (eds) Key Basic Scientific Problems on Near-Space Vehicles. Reports of China’s Basic Research. Springer, Singapore. https://doi.org/10.1007/978-981-19-8907-0_2
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