Влияние сжатия Земли на трассу низкоорбитального космического аппарата

11 / 13

15. Michel C. Satellite orbits and missions. France: Springer-Verlag, 2005. 544 p.
16. Sandip T.A., Shashikala A.G. Simplified orbit determination algorithm for low earth
orbit satellite using space borne GPS navigation sensor // Artificial Satellite. 2014.
Vol. 49. No. 2. P. 81–99.
17. Kelso T.S. Orbital coordinate systems. Part III // Satellite Times. 1996. Vol. 2. No. 3.
P. 78–79.
18. Токарева О.С. Обработка и интерпретация данных дистанционного зондирова-
ния Земли. Томск: Изд-во ТПУ, 2010. 148 с.
19. Anil K.M., Varsha A. Satellite technology, principles and applications. Manhattan:
John Wiley & Sons, 2011. 694 p.
20. Fortescue P., Swinerd G., Stark J. Spacecraft system engineering. Manhattan: John
Wiley & Sons, 2011. 752 p.
21. Пантелеев В.Л. Теория фигуры Земли. Курс лекций. М., 2000. URL:
(дата обращения: 05.03.2015).
22. Hedgley . An exact transformation from geocentric to geodetic coordinates for
nonzero altitudes. NASA TR R-458, March, 1976.
23. Gerhard B. Methods of celestial mechanics. Vol. II. Application to planetary systems,
geodynamics and satellite geodesy. Berlin, Heidelberg: Springer-Verlag, 2005. 448 p.
24. Brian D.H., Daniel T.V. Essential MATLAB for engineers and scientists. Elsevier
Ltd, 2007. 428 p.
25. Охоцимский Д.Е., Сихарулидзе Ю.Г. Основы механики космического полета. М.:
Наука, 1990. 445 с.
26. Белецкий В.В. Очерки о движении космических тел. М.: Книжный дом
“ЛИБРОКОМ”, 2013. 432 с.
REFERENCES
[1] Zarubin V.S. Temperaturnye polya v konstruktsii letatel’nykh apparatov [The
Temperature Fields in the Structure of an Aircraft]. Moscow, Mashinostroenie Publ.,
1966. 216 p.
[2] Spacecraft thermal control handbook, еd. by D.G. Gilmor, vol. 1, El Segundo,
California, Aerospace Press, 2002. 836 p.
[3] Karam R.М. Satellite thermal control for system engineer. American Institute of
Aeronautics and Astronautics, 1998. 280 p.
[4] Bess T.D., Smith G.L. Atlas of wide field of view outgoing long wave radiation
derived from Nimbus 7. Earth radiation budget data set — November 1978 to October
1985. NASA Ref. Publ., no. 1186. Aug. 1987. 174 p.
[5] Smith G.L., Rutan D., Bess T.D. Atlas of albedo and absorbed solar radiation derived
from Nimbus 6. Earth radiation budget data set — July 1975 to May 1978. NASA
Ref. Publ., no. 1230. 1990. 120 p.
[6] Bess T.D., Smith G.L. Atlas of wide field of view outgoing long wave radiation
derived from Nimbus 7. Earth radiation budget data set — November 1985 to October
1987. NASA Ref. Publ., no. 1261. June 1991. 52 p.
[7] Smith G.L., Rutan D., Bess T.D. Atlas of albedo and absorbed solar radiation derived
from Nimbus 7. Earth radiation budget data set — November 1985 to October 1987.
NASA Ref. Publ., no. 1281. 1992. 58 p.
[8] Wiley J.L., James R.W. Space Mission Analysis and Design. California, Microcosm
Press, 2005. 504 p.
[9] Meyer Rudolf X. Elements of space technology for aerospace engineers. San Diego,
Academic Press, 1999. 329 p.
[10] Bate Roger R., Mueller Donald D., Jerry E. Fundamentals of astrodynamics. N.Y.,
Dover publications, 1971. 455 p.
112 ISSN 1812-3368. Вестник МГТУ им. Н.Э. Баумана. Сер. “Естественные науки”. 2015. № 4