Abstract
Navigation systems are vital and indispensable for spacecraft. The main task of a navigation system is to guide a spacecraft to its destination following predetermined routes with the required precision and within the given time. For this purpose, the system should provide accurate navigation parameters, including azimuth (i.e., horizontal attitude and course), velocity, position, etc.
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References
Gan G, Qiu Z (2000) Navigation and positioning. National Defence Industry Press, Beijing
Zhang S, Sun J (eds) (1992) Strap-down navigation system. National Defence Industry Press, Beijing
Inglis SJ (1979) Planets, stars, and galaxies. Science Press, Beijing
Roth GD (1985) Astronomy: a handbook. Science Press, Beijing
Shen C, Sun G (1987) Celestial navigation. National Defence Industry Press, Beijing
SAO Star Catalog, http://tdc-www.harvard.edu/software/catalogs/sao.html
Zhang G (2005) Machine vision. Science Press, Beijing
Fang J, Ning X, Tian Y (2006) Principles and methods of autonomous navigation of spacecraft. National Defence Industry Press, Beijing
Liebe CC (1995) Star trackers for attitude determination. IEEE Trans Aerosp Electron Syst 10(6):10–16
Schmidt U (2005) ASTRO APS—the next generation Hi-Rel star tracker based on active pixel sensor technology. AIAA guidance, navigation, and control conference and exhibit, San Francisco, California, 15–18 Aug 2005. AIAA 2005-5925
Liebe CC, Dennison ED, Hancock B et al (1998) Active pixel sensor (APS) based star tracker. Aerospace conference proceedings (vol 1, pp 119–127). IEEE, Aspen, US. 21–28 March 1998
Liebe CC, Alkalai L, Domingo G et al (2002) Micro APS based star tracker. Aerospace conference proceedings (vol 5, pp 2285–2299). IEEE
Anderson DS (1991) Autonomous star sensing and pattern recognition for spacecraft attitude determination. Ph.D. Dissertation, Texas A&M University
Wei X (2004) A research on star identification methods and relevant technologies in star sensor (pp 1–14). Doctoral Thesis of Beijing University Aeronautics and Astronautics, Beijing
Yang J (2007) A research on star identification algorithm and RISC technology application (pp 1–17). Doctoral Thesis of Beijing University Aeronautics and Astronautics, Beijing
Padgett C, Kreutz-Delgado K, Udomkesmalee S (1997) Evaluation of star identification techniques. J Guid Control Dyn 22(2):259–267
Padgett C, Kreutz-Delgado K (1997) A grid algorithm for autonomous star identification. IEEE Trans Aerosp Electron Syst 33(1):202–213
Gottlieb DM (1978) In: Wertz JR (ed) Star identification techniques, spacecraft attitude determination and control (pp 257–266). The Netherlands
Birnbaum MM (1996) Spacecraft attitude control using star field trackers. Acta Astronaut 39(9–12):763–773
Liebe CC (1992) Pattern recognition of star constellations for spacecraft applications. IEEE AES Mag 28(6):34–41
Quine BM, Durrant-Whyte HF (1996) Rapid star pattern identification. SPIE 2739:351–360
Mortari D, Junkins J, Samaan M (2001) Lost-in-space pyramid algorithm for robust star pattern recognition. 24th annual AAS guidance and control conference, AAS 01–004
Samaan M, Mortari D, Junkins J (2001) Recursive mode star identification algorithms. AAS/AIAA space flight mechanics meeting, AAS 01-149
Scholl M (2019) Star field identification algorithm—Performance verification using simulation star fields. SPIE 1993:275–290
Kosik J (1991) Star pattern identification aboard an inertially stabilized spacecraft. J Guid Control Dyn 14(2):230–235
Bezooijen RV (1989) Automated star pattern recognition. Ph.D. Dissertation, Stanford University
DeAntonio L, Udomkesmalee S, Alexander J et al (1949) Star-tracker based all-sky, autonomous attitude determination. SPIE 1993:204–215
Clouse D, Padgett C (2000) Small field-of-view star identification using Bayesian decision theory. IEEE Trans AES 36(2):773–783
Udomkesmalee S, Alexander J, Tolivar F (1994) Stochastic star identification. J Guid Control Dyn 17(6):1283–1286
Kim H (2002) Novel methods for spacecraft attitude estimation. Ph.D. Dissertation, Texas A&M University
Lindsey C, Lindblad T (1997) A method for star identification using neural networks. SPIE 3077:471–478
Bardwell G (1995) On-board artificial neural network multi-star identification system for 3-axis attitude determination. Acta Astronaut 35:753–761
Li Chunyan, Li Ke, Zhang Yunlong et al (2003) Star identification based on neural networks. Chin Sci Bull 48(9):892–895
Paladugu L, Schoen M, Williams BG (2003) Intelligent techniques for star-pattern recognition. Proceedings of ASME, IMECE2003-42274
Li L, Zhang F, Lin T (2000) An all-sky autonomous star map identification algorithm based on genetic algorithm. Opto-Electron Eng 27(5):15–18
Quan W, Wang G, Fang J (2006) Improved star map identification algorithm based on Hausdorff distance. J Beijing Univ Aeronaut Astronaut 32(1):8–12
Juang JN, Kim H, Junkins JL (2003) An efficient and robust singular value method for star pattern recognition and attitude determination. NASA Langley Research Center, NASA/TM-2003-212142
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Zhang, G. (2017). Introduction. In: Star Identification. Springer, Berlin, Heidelberg. https://doi.org/10.1007/978-3-662-53783-1_1
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DOI: https://doi.org/10.1007/978-3-662-53783-1_1
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