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GPS and Inertial Systems for High Precision Positioning on Motorways

Published online by Cambridge University Press:  12 March 2009

J. E. Naranjo ,
F. Jiménez ,
F. Aparicio  and
J. Zato
J. E. Naranjo*
Affiliation:
(Universidad Politécnica de Madrid)
F. Jiménez
Affiliation:
(Universidad Politécnica de Madrid)
F. Aparicio
Affiliation:
(Universidad Politécnica de Madrid)
*
(Email: joseeugenio.naranjo@upm.es)
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Abstract

The accurate location of a vehicle in the road is one of the most important challenges in the automotive field. The need for accurate positioning affects several in-vehicle systems like navigators, lane departure warning systems, collision warning and other related sectors such as digital cartography suppliers. The aim of this paper is to evaluate high precision positioning systems that are able to supply an on-the-centimetre accuracy source to develop on-the-lane positioning systems and to be used in future applications as an information source for autonomous vehicles that circulate at high speeds on public roads. In this paper we have performed some on-road experiments, testing several GPS-based systems: Autonomous GPS; RTK Differential GPS with a proprietary GPS base station; RTK Differential GPS connected to the public GPS base station network of the National Geographic Institute of Spain via vehicle-to-infrastructure GPRS communications; and GPS combination with inertial measurement systems (INS) for position accuracy maintenance in degraded satellite signal reception areas. In these tests we show the validity and the comparison of these positioning systems, allowing us to navigate, in some cases, on public roads at speeds near 120 km/h and up to 100 km from the start position without any significant accuracy reduction.

Keywords

DGPSInertial SystemsRTCM DGPS Correction Message
Type
Research Article
Information
The Journal of Navigation , Volume 62 , Issue 2 , April 2009 , pp. 351 - 363
Copyright
Copyright © The Royal Institute of Navigation 2009

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References

REFERENCES

[1].Tsugawa, S., Yatabe, T., Hirose, T., and Matsumoto, S., (1979). “An automobile with artificial intelligence,” in Proc. 6th Int. Joint Conf. Artificial Intelligence (IJCAI), Tokyo, Japan, pp. 893–895, 1979.Google Scholar
[2].Broggi, A., Bertozzi, M., Fascioli, A., and Conte, G., (1999). “Automatic Vehicle Guidance: The Experience of the ARGO Autonomous Vehicle”. Singapore: World Scientific, 1999.Google Scholar
[3].Pomerleau, D., “RALPH: Rapidly adapting lateral position handler,” (1995). in Proc. IEEE Intelligent Vehicles Symp., Detroit, MI, pp. 506–511, 1995.Google Scholar
[4].The White House, Office of the Press Secretary, (2000). “Statement by the President regarding the United States' Decision to stop degrading Global Positioning System accuracy”, May 1, 2000.Google Scholar
[5].Naranjo, J.E., González, C., García, R. and de Pedro, T., (2006) “ACC+Stop&Go Maneuvers With Throttle and Brake Fuzzy Control”, IEEE Transactions on Intelligent Transportation Systems, 7, 2, 213–225, June 2006.CrossRefGoogle Scholar
[6].Trepagnier, P.G., Nagel, J., Kinney, P.M., Koutsougeras, C. and Dooner, M., (2006). “KAT-5: Robust Systems for Autonomous Vehicle Navigation in Challenging and Unknown Terrain”, Journal of Field Robotics. 23, 8, 509–526.Google Scholar
[7].Travis, W., Daily, R., Bevly, D.M., et al. , (2006) “SciAutonics-Auburn Engineering's Low-Cost High-Speed ATV for the 2005 DARPA Grand Challenge”, Journal of Field Robotics. 23, 8, 579–597, 2006.Google Scholar
[8].Gebhard, H. and Weber, G., “Networked Transport of RTCM via Internet Protocol”, (2003). Design- Protocol-Software, published by Federal Agency for Cartography and Geodesy, June.Google Scholar
[9].Zhang, Y. and Gao, Y., (2008). “Integration of INS and Un-Differenced GPS Measurements for Precise Position and Attitude Determination”, The Journal of Navigation, 61, 87–97.Google Scholar
[10].Debot, E.M., Durrant, H. and Scheding, S., (1998) “Frequency domain modeling of aided GPS for vehicle navigation systems”, Robotics and Autonomous Systems, 25, 73–82.Google Scholar
[11].Toledo, R., Zamora, M.A., Úbeda, B. and Gómez-Skarmeta, A., (2007). “High-Integrity IMM-EKF-Based Road Vehicle Navigation With Low-Cost GPS/SBAS/INS”, IEEE Transactions on Intelligent Transportation Systems, 8, 3, 491–511, September,.Google Scholar
[12].Pandazis, J.C., “NEXTMAP: Investigating the Future of Digital Maps Databases”, NEXT MAP UE Project Paper 2183, 2006.Google Scholar
[13].T'Siobbel, S. and van Essen, R.. “The map enabled ADAS future”. FISITA World Automotive Congress, Barcelona, 23–27 May 2004.Google Scholar
[14].eSafety Forum, Digital Maps Working Group, “Final Report Recommendation”, Brussels, November 2005.Google Scholar
[15].Shladover, S.E. and Tan, S.K., (2006). “Analysis if Vehicle Positioning Accuracy Requirements for Communication-Based Cooperative Collision Warning”, Journal of Intelligent Transportation Systems, 10, 3, 131–140.Google Scholar
[16].Tan, H.S. and Huang, J., (2006). “DGPS-Based Vehicle-to-Vehicle Cooperative Collision Warning: Engineering Feasibility Viewpoints”, IEEE Transactions on Intelligent Transportation Systems, 7, 7, 415–428, December.CrossRefGoogle Scholar
[17].Aparicio, F., Páez, J., Moreno, F., and Jiménez, F.. (2004) “SAGE project, Final Report”, Madrid, Spain.Google Scholar
[18].Jiménez, F.. “Sistema de adaptación de la velocidad de los vehículos automóviles a la geometría de la carretera”. PhD Thesis. Polytechnic University of Madrid, 2006 (in Spanish).Google Scholar