UDK 629.78:629.036:629.7.036.72:629.7.036.73
BACKGROUNDS AND TRENDS OF ALL-ELECTRIC PROPULSION GEOSTATIONARY SATELLITES CREATION
A. A. Vnukov, E. I. Rvacheva
JSC "Information satellite systems" named after academician M. F. Reshetnev" 52, Lenin str., Zheleznogorsk, Krasnoyarsk region, 662972, Russian Federation Е-mail: VnukovAlx@yandex.ru
Due to the increasing of demand for spaceсrafts, capable, at a relatively low launch mass, being injected into geostationary orbit by the launch vehicles is not equipped with apogee upper stage, as well as due to the trend of using middle class launch vehicles for the group launch of geostationary satellites, spacecraft manufacturers worldwide seek capabilities for reducing of fuel reserves for apogee maneuver, replacing the usual two-component chemical engines by the electric thrusters or combining them. However, the proposed schemes of all-electric propulsion systems have obvious disadvantages, due to the need of finding a compromise between the high power consumption of electrostatic or electromagnetic thrusters and low specific impulse resistojets, as well as the difficulties associated with the long-term presence in the area of Van-Allen radiation belts during his transfer to the operational orbit using electric thrusters, which negatively affects its reliability and degrades the mass efficiency of spacecraft equipment. In this paper the authors consider a different concept of all-electric propulsion platforms for spacecraft in geostationary orbit and provides a comparative analysis of these concepts with the existing combination shemes used for spacecrafts of JSC "Academician M.F. Reshetnev "Information Satellite Systems". Competitive advantage of the combined system of jet propulsion produced by JSC "ISS" over the prospective all-electric propulsion systems is justified. However, due to the impossibility to use for launching satellites with a JSC «ISS»’s combined propulsion system into geostationary orbit using foreign launch vehicles not equipped with apogee upper stage, there is a need to apply as part of the spacecraft apogee engine that capable of providing increase of the transfer orbit perigee to an altitude preventing from the spacecraft presence in the area of Van-Allen radiation belts. The feasible mass performances of a middle-class satellite with hybrid orbit transfer propulsion system and compatible with foreign launchers are assigned. The main trends of all-electric propulsion systems development, associated primarily with the transfer scheme, used by different spacecrafts for injection in geostationary orbit are specified.
spacecraft, propulsion system, attitude control system, electric thruster, xenon attitude control thruster, hydrazine attitude control thruster.
References
  1. Peter B. de Selding. New Boeing Satellite Platform Drawing Lots of Customer Interest. Available at: http://www.spacenews.com/article/satellite-telecom/34454 new-boeing-satellite-platform-drawing-lots-of-customer-interest (accessed 19.06.2014).
  2. Peter B. de Selding. SES Partners with European Space Agency, OHB To Build All-electric Satellite. Available at: http://www.spacenews.com/article/satellite-telecom/37714ses-partners-with-european-space-agency-ohb-to-build-all-electric (дата обращения: 19.06.2014).
  3. SmallGEO FLEX Platform. Highly efficient all electric geostationary platform for telecommunication. Available at:https://www.ohb-system.de/tl_files/system/ pdf/ OHB_Plattformbroschuere_SmallGEO_Electra.pdf  (accessed 19.06.2014).
  4. Peter B. de Selding. News from the Farnborough International Airshow. Dauria Aerospace To Build Two Lightweight Telecom Satellites for Indo-U.S. Venture. Available at: http://www.spacenews.com/article/satellitetelecom/41295news-from-the-farnborough-international-airshow-dauria-aerospace-to (accessed 19.06.2014).
  5. Airbus Defence and Space to build EUTELSAT 172B, first European satellite to perform electric orbit raising. Available at: http://www.space-airbusds.com/ en/press_centre/ airbus-defence-and-space-to-build-eutelsat- 172b-first-european-satellite-to.html (accessed 12.09.2014).
  6. Airbus Defence and Space to build new telecommunications satellite for US operator EchoStar. Available at: http://www.space-airbusds.com/en/press_ centre/airbus-defence-and-space-to-build-new-telecom-munications- satellite-for-us.html (accessed 12.09.2014).
  7. Lockheed Martin Unveils Major Capability Upgrades to Proven A2100 Satellite Platform. Available at: http://www.lockheedmartin.com/us/news/press-releases/ 2014/ september/ 0908-ss-a2100.html (accessed 12.09.2014).
  8. Higham J., Tilley S. Spacecraft transfer orbit techniques. Patent 8763957 USA, IPC B64G 1/10, applicant: Space Systems/Loral, Inc., assignee: Space Systems/Loral, LLC – appl. no. 13/647207, filed 08.10.12 date of patent 01.07.14 – 9 p.
  9. Inmarsat-5 specifications. Available at: http://www.boeing.com/boeing/ defense-space/space/bss/ factsheets/702/Inmarsat-5/Inmarsat-5.page (accessed 19.06.2014).
  10. Alphabus_factsheet. Available at: http:// esamultimedia.esa.int/docs/technology/ Alphabus_factsheet. pdf (accessed 19.06.2014).
  11. Universal'naja kosmicheskaja platforma [Multipurpose space bus]. Available at: http://www.energia.ru/ru/automatic/usp.html (accessed 19.06.2014).
  12. Testoedov N. A., Yakimov E. N., Ermoshkin Yu. M. [et al.] Overview of electric propulsion activity in Russia // In 30th International Electric Propulsion Conference (September 17–20, 2007, Florence).
  13. Busek’s Hall Effect Thruster Technology saves Air Force AEHF satellite. Available at: http://busek.com/news__201203__aehf.htm (accessed 19.06.2014).
  14. Goebel, D., Polk, J., Sandler, I., Mikellides, I., Brophy, J., Tighe, W. and Chien. K., “Evaluation of 25-cm XIPS© Thruster Life for Deep Space Mission Application”, In 31th International Electric Propulsion Conference, USA, 2009.
  15. Resistojet Propulsion System. Available at: http://www.alta-space.com/uploads/file/ brochures/ Brochure_XR.pdf (accessed 19.06.2014).
  16. Jakimov E. N., Ermoshkin Ju. M., Volkov D. V. [The application of EBD “Fakel” ’s thrusters in the spacecraft bus of JSC “ISS”]. Jelektroreaktivnye sistemy OKB Fakel». Kaliningrad, 2010, p. 113–119.
  17. Produktsiya OKB Fakel. Dvigatel' K50-10.1 (letnaya model') [OKB “Fakel” ’s production. Thruster K50-10.1 (flying model)] Available at: http://www.fakel-russia.com/k50-10.html (accessed 19.06.2014).
  18. Feuerborn S. A., Neary D. A., Perkins J. M. Finding a way: Boeing’s “All Electric Propulsion Satellite”. In 49th AIAA/ASME/SAE/ASEE Joint Propulsion Conference, 14-17 July 2013, San Jose, USA.
  19. Gelon, W., Kamel, A., Stratemeier, D., Hur-Diaz, S. Practical orbit raising system and method for geosynchronous satellites. Patent 7113851 USA: IPC B64/G 1/10, G06F 19/00, G06F 169/00, G01N 15/08 – appl. no. 09/328911, filed 09.06.99, date of patent 26.09.06, 16 p.

Vnukov Aleksey Anatol'evich – engineer, JSC “Information satellite systems” named after academician M. F. Reshetnev”. E-mail: VnukovAlx@yandex.ru

Rvacheva Elena Igorevna – engineer, JSC “Information satellite systems” named after academician M. F. Reshetnev”