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Mars Cruise Orbit Determination from Combined Optical Celestial Techniques and X-ray Pulsars

  • Jiandong Liu (a1) (a2), Erhu Wei (a3) and Shuanggen Jin (a1) (a4)
Abstract

The precise autonomous navigation for deep space exploration by combination of multi-source observation data is a key issue for probe control and scientific applications. In this paper, the performance of an integrated Optical Celestial Navigation (OCN) and X-ray Pulsars Autonomous Navigation (XNAV) system is investigated for the orbit of Mars Pathfinder. Firstly, OCN and XNAV single systems are realised by an Unscented Kalman Filter (UKF). Secondly, the integrated system is simulated with a Federated Kalman Filter (FKF), which can do the information fusion of the two subsystems of UKF and inherits the advantages of each subsystem. Thirdly, the performance of our system is evaluated by analysing the relationship between observation errors and navigation accuracy. The results of the simulation experiments show that the biases between the nominal and our calculated orbit are within 5 km in all three axes under complex error conditions. This accuracy is also better than current ground-based techniques.

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Copyright
Corresponding author
(E-mail: ehwei@sgg.whu.edu.cn)
References
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Becker W., Bernhardt M.G. and Jessner A. (2013). Autonomous Spacecraft Navigation With Pulsars. Acta Futura, 7, 1128.
Bhaskaran S. (2012). Autonomous navigation for deep space missions. SpaceOps 2012 Conference, Stockholm, Sweden.
Cao J.F., Yong H., Hu X.G., Ma M.L. and Zheng W.M. (2010). Mars express tracking and orbit determination trials with chinese vlbi network. Chinese Science Bulletin, 55(32), 36543660.
Carlson N.A. (1990). Federated square root filter for decentralized parallel processors. IEEE Transactions on Aerospace and Electronic Systems, 26(3), 517525.
Chester T.J. and Butman S.A. (1981). Navigation using X-ray pulsars. NASA technique report 81N27129, 2225.
Deng X.P., Hobbs G., You X.P., Li M.T., Keith M.J., Shannon R.M., Coles W., Manchester R.N., Zheng J.H., Yu X.Z., Gao D., Wu X. and Chen D. (2013). Interplanetary spacecraft navigation using pulsars. Advances in Space Research, 52(9), 16021621.
Dormand J.R. and Prince P.J. (1978). New Runge-Kutta algorithms for numerical simulation in dynamical astronomy. Celestial Mechanics, 18(3), 223232.
Downs G.S. (1974). Interplanetary navigation using pulsating radio sources. NASA technique report 32-1954, 110.
Golombek M.P., Cook R.A., Economou T., Folkner W.M., Haldemann A.F., Kallemeyn P.H., Knudsen J.M., Manning R.M., Moore H.J., Parker T.J., Rieder R., Schofield J.T., Smith P.H. and Vaughan R.M. (1997). Overview of the Mars Pathfinder mission and assessment of landing site predictions. Science, 278(5344), 17431748.
Gounley R., White R. and Gai E. (1984). Autonomous satellite navigation by stellar refraction. Journal of guidance, control, and dynamics, 7(2), 129134.
Graf J.E., Zurek R.W., Eisen H.J., Jai B., Johnstona M.D. and Ramon DePaulab. (2005). The Mars reconnaissance orbiter mission. Acta Astronautica, 57(2), 566578.
Graven P., Collins J., Sheikh S., Hanson J., Ray P., and Wood K. (2008). XNAV for deep space navigation. 31st Annual AAS Guidance and Control Conference,AAS 08-054, 116.
Hampton D.L., Baer J.W., Huisjen M.A., Varner C.C., Delamere A., Wellnitz D.D., A'Hearn M.F. and Klaasen K.P. (2005). An overview of the instrument suite for the Deep Impact mission. Space Science Reviews, 117 (1–2), 4393.
Hanson J.E. (2006). Principles of X-ray Navigation. SLAC Report 809, Chapter 1, 16.
Hemmati H. (2006). Deep space optical communications. John Wiley and Sons, 11, Chapter1, 15.
James N., Abello R., Lanucara M., Mercolino M., and Maddè R. (2009). Implementation of an ESA Delta-DOR capability. Acta Astronautica, 64(11), 10411049.
Jin S.G., Arivazhagan S., and Araki H. (2013). New results and questions of lunar exploration from SELENE, Chang'E-1, Chandrayaan-1 and LRO/LCROSS, Advances in Space Research, 52(2), 285305.
Jin S.G. and Zhang T.Y. (2014). Automatic detection of impact craters on Mars using a modified adaboosting method, Planetary and Space Science, 99, 112117, doi: 10.1016/j.pss.2014.04.021.
Lowman A.E. and Stauder J.L. (2004). Stray light lessons learned from the Mars Reconnaissance Orbiter's Optical Navigation Camera. Proceedings of SPIE 5526, 5526, 240248.
Mastrodemos N., Kubitschek D.G. and Synnott S.P. (2005). Autonomous navigation for the Deep Impact mission encounter with comet Tempel 1. Space Science Reviews, 117 (1-2), 95121.
Rong J., Luping X., Zhang H. and Li C. (2016). Augmentation method of XPNAV in Mars Orbit based on Phobos and Deimos observations. Advances in Space Research.
Sheikh S.I. and Pines D.J. (2006). Recursive Estimation of Spacecraft Position and Velocity Using X-ray Pulsar Time of Arrival Measurements. Navigation, 53(3), 149166.
Sheikh S.I., Hellings R.W. and Matzner R.A. (2007). High-order pulsar timing for navigation. Proceedings of the 63rd ION Annual Meeting, Cambridge, Massachusetts, 432443.
Sheikh S.I., Pines D.J., Ray P.S., Wood K.S., Lovellette M.N., and Wolff M.T. (2006). Spacecraft navigation using X-ray pulsars. Journal of Guidance, Control, and Dynamics, 29(1), 4963.
Sierks H., Keller H.U., Jaumann R., Michalik H., Behnke T., Bubenhagen F., Büttner I., Carsenty U., Christensen U., Enge R., Fiethe B., Gutiérrez M.P., Hartwig H., Krüger H., Kühne W., Maue T., Mottola S., Nathues A., Reiche K.U., Richards M.L., Roatsch T., Schröder S.E., Szemerey and Tschentscher I.M. (2011). The Dawn framing camera. Space science reviews, 163 (1–4), 263327.
Soderblom L.A., Becker T.L., Bennett G., Boice D.C., Britt D.T., Brown R.H., Buratti B.J., Isbell C., Giese B., Hare T., Hicks M.D., Howington-Kraus E., Kirk R.L., Lee M., Nelson R.M., Oberst J., Owen T.C., Rayman M.D., Sandel B.R., Stern S.A., Thomas N. and Yelle R.V. (2002). Observations of Comet 19P/Borrelly by the miniature integrated camera and spectrometer aboard Deep Space 1. Science, 296(5570), 10871091.
Stastny N.B. and Geller D.K. (2008). Autonomous optical navigation at Jupiter: a linear covariance analysis. Journal of Spacecraft and Rockets, 45(2), 290298.
Sun T., Xing F., Wang X., You Z., and Chu D. (2016). An accuracy measurement method for star trackers based on direct astronomic observation. Scientific reports, 2016, 6(22593):110.
Wan E.A., and Van der Merwe R. (2000). The unscented Kalman filter for nonlinear estimation. AS-SPCC. IEEE, 153–158.
Wang Y., Zheng W., An X., Sun S. and Li L. (2013). XNAV/CNS integrated navigation based on improved kinematic and static filter. Journal of Navigation, 66(6), 899918.
Wei E., Jin S., Zhang Q., Liu J., Li X. and Yan W. (2013). Autonomous navigation of Mars probe using X-ray pulsars: modeling and results. Advances in Space Research, 51(5), 849857.
Wei E., Tang S., Jin S.G., and Liu J. (2016). Positioning results of lunar rover based on combined VLBI and Celestial Navigation, Journal of Geodesy and Geodynmics, 36(8), 703707.
White R.L., Thurman S.W. and Barnes F.A. (1985). Autonomous satellite navigation using observations of starlight atmospheric refraction. Navigation, 32(4), 317333.
Winternitz L.M.B., Mitchell J.W., Hassouneh M.A., Valdez J.E., Price S.R., Semper S.R. and Yu W.H. (2016). SEXTANT X-Ray Pulsar Navigation Demonstration: Flight System and Test Results. NASA technique report 20160003320, 112.
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