Article


Cover

№2 2020

Title

Analysis of the cyclogram of maintaining a low working orbit of a spacecraft of the AIST-2 class using an electric jet engine

Authors

V.V. Volotsuev, V.V. Salmin

Organization

Samara National Research University
Samara, Russian Federation

Abstract

A study was made of the time parameters of the cyclogram for maintaining the low working orbit of a small spacecraft of the AIST-2 class using an electric jet engine. The analysis is made for working orbits with a height in the range from four hundred to five hundred kilometers with a changing upper atmosphere of the Earth, depending on the level of solar activity. The calculations used the thrust of an electric jet engine equal to twenty millinewtons with a service life of not more than a thousand hours. The methodological and software were used: for calculating the level of aerodynamic drag depending on the level of solar activity; for modeling and analysis of the parameters of the orbital motion of the spacecraft under the action of corrective and aerodynamic forces. The results of the analysis showed that the electric jet engine allows maintaining the working orbit in the range of designated heights. If the average altitude of the orbit deviates by no more than three kilometers, correction can be carried out in less than a day. The time of one correction cycle can vary from four to four hundred and seventy-eight days, depending on the level of solar activity and the design and ballistic parameters of the spacecraft. The operating life of an electric jet engine equal to one thousand hours can maintain the working orbit of the spacecraft for more than seven years with low solar activity in the range of the studied heights.

Keywords

electric propulsion engine, low orbit, correction cyclogram, small spacecraft

References

[1] Izveskov I. Kosmicheskie vojska zapustili evropejskij sputnik [Space troops launched a European satellite]. Cosmonautics news, 2009, vol. 19, no. 5 (316), pp. 38–42. (In Russian)

[2] Kiselev K. V., Medvedikov I. A., Khodnenko A. V., Khromov V. A., Shlyakonov L. V. Rezul'taty letnyh ispytanij korrektiruyushchej dvigatel'noj ustanovki s dvigatelem SPD-50 na bortu kosmicheskogo apparata tipa «Kanopus-V» [Results of flight tests of the corrective propulsion system with the SPD-50 engine on Board the Canopus-V spacecraft]. Electrical engineering issues, 2013, vol. 137, pp. 7–14. (In Russian)

[3] Japan Aerospace Exploration Agency. About Super Low Altitude Test Satellite «TSUBAME» (SLATS). Available at: https://global.jaxa.jp/projects/sat/slats (accessed 05.05.2020).

[4] Yaponskij sputnik ustanovil rekord. Neobychnyj rezhim ionnogo dvigatelya [The Japanese satellite set a record. Unusual ion engine mode]. Available at: https://naukatehnika.com/yaponskij-sputnik-ustanovil-rekord.html (accessed 05.05.2020). (In Russian)

[5] Kirilin A. N., Akhmetov R. N., Shakhmatov E. V., Tkachenko S. I. Opytno-tekhnologicheskij malyj kosmicheskij apparat «AIST-2D» [Experimental and technological small spacecraft «AIST-2D»]. Samara, Publishing house of the Russian Academy of Sciences, 2017, 324 p. (In Russian)

[6] Duboshin G. N. Spravochnoe rukovodstvo po nebesnoj mekhanike i astrodinamike [Reference guide to celestial mechanics and astrodynamics]. Moscow, Nauka, 1976, 864 p. (In Russian)

[7] Anshakov G. P., Salmin V. V., Volotsuev V. V. Matematicheskie modeli podderzhaniya nizkoj orbity kosmicheskogo apparata s pomoshch'yu elektroreaktivnyh dvigatelej s uchetom ogranichenij po elektropitaniyu [Mathematical models of maintaining a low orbit of a spacecraft using electric propulsion engines, taking into account power limitations]. Proceedings of the conference ITNT-2018, 2018, pp. 2813–2820. (In Russian)

[8] Salmin V. V., Volotsuev V. V., Tkachenko S. I., Kaurov I. V. Improving the Efficiency of Earth Monitoring Missions by Equipping Small Spacecraft AIST-2 with Electric Propulsion // Procedia Engineering, 2017, vol. 185, pp. 198–204.

[9] Salmin V. V., Volotsuev V. V., Safronov S. L, Tkachenko I. S., Raube S. S., Shikhanov S. V., Shikhanova E. G. Application of Electric Propulsion for Low Earth Orbit Station Keeping // Procedia Engineering, 2017, vol. 185, pp. 254–260.

[10] GOST R25645.166-2004 «Atmosfera Zemli verhnyaya. Model' plotnosti dlya ballisticheskogo obespecheniya poletov iskusstvennyh sputnikov Zemli» [GOST P25645.166-2004 «Earth's upper Atmosphere. Density model for ballistic support of flights of artificial earth satellites»]. (In Russian)



For citing this article

Volotsuev V.V., Salmin V.V. Analysis of the cyclogram of maintaining a low working orbit of a spacecraft of the AIST-2 class using an electric jet engine // Spacecrafts & Technologies, 2020, vol. 4, no. 2, pp. 61-71. doi: 10.26732/j.st.2020.2.01


Creative Commons License
This Article is licensed under a Creative Commons Attribution-NonCommercial 4.0 International License (CC BY-NC 4.0).