1 |
Ted McFarland, "Introduction to the Current Status of Blue Origin's Space Industry," Seminar at KARI, 8 Mar. 2019.
|
2 |
Vasilievich, M.V., Improving the efficiency of the system for modulating the fuel of oxygen-methane liquid-propellant rocket engine with fuel rich preburner, dissertation for the Ph.D, Moscow, Russia, 2005.
|
3 |
Edberg, D. and Willie Costa, Design of Rockets and Space Launch Vehicles, AIAA, Virginia, U.S.A., 2020.
|
4 |
Atlas V Launch Services User's Guide, March 2010, United Launch Alliance.
|
5 |
Delta IV Launch Services User's Guide, June 2013, United Launch Alliance.
|
6 |
Hydrogen embrittlement, World Wide Web location https://en.wikipedia.org/wiki/Hydrogen embrittlement, 2021.
|
7 |
Walker, J.L., Waltrip, J.S. and Zanker, A., Lactic acid to magnesium supply-demand relationships. In John J. McKetta; William Aaron Cunningham(eds.). Encyclopedia of Chemical Processing and Design. 28, New York, Dekker, 1988.
|
8 |
Jean-Marc Astorg, CNES future launcher roadmap, La Sapienza, World Wide Web location https://satelliteobservation.net/2018/06/02/cnes-director-of-launchers-talks-reusable-rockets, 2018
|
9 |
MSTU conference material "Efficiency and weight and size characteristics of a rocket propulsion system on various fuels," Step into the future, Moscow, Russia.
|
10 |
Egorychev, V.S., Theory, Calculation and design of rocket engines, SSAU, Samara, Russia, 2011.
|
11 |
Why the next generation of rockets will be powered by methane, World Wide Web location https://bright-r.com.au/why-thenext-generation-of-rockets-will-be-powered-by-methane, 2019.
|
12 |
Kuzin, A.I., Rachuk, V.S., Katorgin, B.I., Smirnov, I.A., Vakhnichenko, V.V., Lozin, S.N., Lekhov, P.A., Semenov, A.I., Ievlev, A.V., Efimochkin, A.F., Klepikov, A.I., Likhvantzev, A.A., Yakovlev, A.G., Petrov, V.N., Romashkin, A.M. and Gusev, Yu.G., "Substantiation of rocket fuel components choices for propulsion units of the reusable space-rocket systems' first stage," Journal of Aerospace Technology, No. 1, pp. 19-55, 2010.
|
13 |
Gavrilenko, T.S., Glushkov, A.V., Gorodilov, Y.V., Ulybyshev, S.Y. and Khramov, S.M., Russian patent, RU 2193 681 C2, Method of fire test of liquid propellant rocket engines, Moscow, Russia.
|
14 |
Jean-Philippe Dutheil and Yoan Boue, "Highly reusable LOx/LCH4 ACE rocket engine designed for SpacePlane: Technical Maturation progress via key system demonstrators results," EUCASS, Milan, Italy, EUCASS 2017-552, 2017.
|
15 |
LNG goes into space. Roscosmos discusses with Gazprom the use of LNG as rocket fuel, World Wide Web location https://neftegaz.ru/news/gas-stations/198050-spg-vykhodit-v-kosmos-roskosmos-obsuzhdaet-s-gazpromom-ispolzovanie-spg-v-kachestve-raketnogo-topli, 2018.
|
16 |
R.V. Mykhalchyshyn, M.S and Brezgin, D.A. Lomskoi, "Methane, Kerosene, and Hydrogen Comparison as a Rocket Fuel for Launch Vehicle PHSS Development," Space science and technology, Vol. 24, No. 2, pp. 12-17, 2018.
|
17 |
Galeev, A.G., "On the Issue of Ensuring the Safety of Development and Operation of Two-Threaded RKS Plants Using Cryogenic Fuel Components," Proceedings of the Moscow Aviation Institute, Vol. 64. pp. 1-13, 2013
|
18 |
Rogozin D.O., the Cabinet of Ministers will consider the project of the Soyuz-5 rocket on a methane engine, World Wide Web location https://ria.ru/20180417/1518853528.html, 2018
|
19 |
Kim, C.W., "Research on Autogenous Pressurization System," Idea Seed Project of KARI, 2021.
|
20 |
Kim, C.W., "Study on Automatic Control Architecture for Methane-fueled Expander Cycle Upper Stage Engine," Proceedings of the Korean Society of Propulsion Engineers, KSPE fall Conference, Busan, Korea, KSPE 2020-2013, Nov. 2020.
|
21 |
Mikhailov, V.V. and Bazarov, V.G., Throttleable Liquid Rocket Engines, Mashinostroenie, Moscow, Russia, 1985.
|
22 |
Kim, C.W. and Lim, B.J., "Study on Liquid Rocket Engine Control Technologies," KSAS Spring Conference, 2020.
|
23 |
Kuzin, A.I., Lozin, S.N., Lekhov, P.A., Semenov, A.I. and Mamin, V.V., "Khrunichev State Research and Production Space Center's Researches on Substantiation of Demanded Dimension of Liquid Fuel Rocket Engine for Reusable 1-st Stage of RSRS-1," Journal of Aerospace Technology, No. 1, pp. 13-18, 2010.
|
24 |
Kim, C.W., "Lessons learned from the SSME engine in terms of reusability," SASE Fall Conference, Kyeongju, Korea, Oct. 2018.
|
25 |
Lebedinsky, E.V., Mosolov, S.V., Kalmykov, G.P., Zenin, E.S., Tararyshkin, V.I. and Fedotchev, V.A., Computer Models of Liquid-Propellant Rocket Engines, Mashinostroenie, Moscow, Russia, 2009.
|
26 |
Ivanov, A.V., Skomorokhov, G.I. and Shmatov, D.P., Design of Liquid Rocket Engines: Diploma Design, VSTU, Voronesh, Russia, 2016.
|
27 |
Adzhyan, A.P., Akim, E.L., Alifanov, O.M. and others., Encyclopedia 'Mechanical engineering' : space rocket technology, Vol. IV-22, book 1, Russia, 2012.
|
28 |
Kim, C.W., Lim, H.Y., Cho, G.S. and Roh, W.R., "Preliminary Study On Expander Cycle Methane Engine," 70th IAC, Washington D.C., U.S.A, Oct. 2019.
|
29 |
Kim, C.W., Liquid Rocket Engine, Gyeongmunsa, Seoul, Korea, 2020.
|
30 |
Bershadsky, V.A. and Kolomentsev, A.I., Methods for testing systems for supplying cryogenic propellants to the engine with simulation of thermal processes, MAI, Moscow, Russian, 2018.
|
31 |
Galeev, A.G., Ivanov, V.N., Katenin, A.V., Liseikin, V.A., Pikalov, V.P., Polyakhov, G.G, Saidov, G.G, and Shibanov, A.A., Methodology of Experimental Development of LRE and Propulsion System, basis of Testing and Devices of Test Stands, NITs RKP, Kirov, Russia, 2015.
|
32 |
Alekseevich, K.I., Choice of energy and mass characteristics of reusable rocket engines running on liquefied natural gas, dissertation for the Doctoral degree of Technical Sciences, Moscow, Russia, 2005.
|
33 |
Kozlov, S.N., Litvinov, A.V. and Lenkina, L.D., Chemical Rocket Fuels, Biysk Technological Institute, Biysk, Russia, 2018.
|