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18 - Preventing Collisions

Published online by Cambridge University Press:  05 June 2012

A. Galip Ulsoy
Affiliation:
University of Michigan, Ann Arbor
Huei Peng
Affiliation:
University of Michigan, Ann Arbor
Melih Çakmakci
Affiliation:
Bilkent University, Ankara
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Summary

Active Safety Technologies

An important motivation for AVCS technologies is safety, and a key safety technology is collision detection and avoidance systems. This type of safety enhancement is termed “active safety,” which is different from the traditional passive-safety concept (i.e., crashworthiness) (Sun and Chen 2010). The goal is to prevent collisions, not simply mitigate their effects. There are two major driving forces behind recent progress in the active-safety area, as follows:

  1. The continuous progress in passive-safety systems has pushed the technology into a return/cost plateau. For example, a recent study shows that 42 percent of fatal-crash occupants can be saved by safety belts, and 47 percent can be saved with safety belts plus an air bag (Figure 18.1). For the remainder of accidents, the impact energy level is simply too high to be managed by reasonable engineering means using current technology. Most of these high-impact energy impacts, however, can be avoided altogether by active safety technologies (ASTs).

  2. Recent changes in the standards for Corporate Average Fuel Economy (CAFE) continue to move toward reduced petroleum consumption in the United States. An important engineering approach for higher fuel efficiency is to lower vehicle weight; however, this solution is likely to raise safety concerns. It has been verified consistently that vehicle weight is the third-most important safety attribute for automobiles (i.e., after safety belts and air bags). Again, a possible solution to this safety concern is to apply ASTs.

Many enabling technologies and subsystems, which are useful for AST, have been widely available on passenger vehicles since 2005 (Table 18.1). Therefore, the add-on complexity and cost of introducing AST are greatly reduced. This fact, together with the obvious diminishing returns from passive-safety devices, has made active-safety systems increasingly attractive.

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Publisher: Cambridge University Press
Print publication year: 2012

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References

Caveney, D. 2010 Cooperative Vehicular Safety ApplicationsIEEE Control Systems Magazine 30 38CrossRefGoogle Scholar
Chen, B-C.Peng, H. 1999 Rollover Warning of Articulated Vehicles Based on a Time-to-Rollover Metric,” American Society of Mechanical Engineers, Dynamic Systems and Control Division (Publication) DSC247Proceedings of the ASME International Mechanical Engineering Congress and ExpositionNashville, TNGoogle Scholar
Chen, L. K.Ulsoy, A. G. 2002 Design of a Vehicle Steering Assist Controller Using Driver Model UncertaintyInternational Journal of Vehicle Autonomous Systems 1 111CrossRefGoogle Scholar
Chen, L. K.Ulsoy, A. G. 2006 Experimental Evaluation of Steering Assist Controllers on a Driving SimulatorVehicle System Dynamics 44 223CrossRefGoogle Scholar
Chen, S.Sheridan, T. B.Kusunoki, H.Komoda, N. 1995 Car Following Measurements, Simulations, and a Proposed Procedure for Evaluating SafetyProceedings of the IFAC Symposium on Analysis, Design and Evaluation of Man-Machine SystemsPergamon Press603Google Scholar
Chen, S. K.Moshchuk, N.Nardi, F.Ryu, J. 2010 Vehicle Rollover AvoidanceIEEE Control Systems Magazine 30 70CrossRefGoogle Scholar
Davis, J. R. 1989 Back Seat Driver: Voice Assisted Automobile NavigationCambridgeMassachusetts Institute of TechnologyGoogle Scholar
Davis, J. R.Schmandt, C. M. 1989
Fontaine, H.Malaterre, G.Van Elslande, P. 1989
Hatsopoulos, N.Anderson, J. A. 1992 Collision-Avoidance System Based on Optical FlowProceedings of the Intelligent Vehicles92 SymposiumDetroitGoogle Scholar
Himmelspach, T.Ribbens, W. 1989 Radar Sensor Issues for Automotive Headway Control ApplicationsFall 1989 Summary Report for the Special Topics Course in IVHSUniversity of MichiganGoogle Scholar
Hirano, M. 1993 Development of Vehicle-Following Distance Warning System for Trucks and BusesProceedings of the IEEE-IEE Vehicle Navigation and Information Systems ConferenceOttawaGoogle Scholar
Jones, W. D. 2002 82
Kaempchen, N.Fuerstenberg, K. C.Skibicki, A. G.Dietmayer, K. C. J. 2004 Sensor Fusion for Multiple Automotive and Safety Comfort ApplicationsAdvanced Microsystems for Automotive Applications137Springer, BerlinGoogle Scholar
Kehtarnavaz, N.Lee, J. S.Griswold, N. C. 1990 Vision-Based Convoy Following by Recursive FilteringProceedings of the American Control ConferenceSan Diego, CA268Google Scholar
Kehtarnavaz, N.Sohn, W. 1991 Steering Control of Autonomous Vehicle by Neural NetworksProceedings of the American Control ConferenceBoston, MA3096Google Scholar
Kimbrough, S. 1991 Coordinated Braking and Steering Control for Emergency Stops and AccelerationsVelinsky, S. A.Fries, R. H.Haque, I.Wang, D.Advanced Automotive Technologies–1991New York229Google Scholar
Kimbrough, S.Chiu, C. 1990 Automatic Steering System for Utility Trailers to Enhance Stability and ManeuverabilityProceedings of the American Control ConferenceSan Diego, CA2924Google Scholar
Kimbrough, S.Chiu, C. 1991 A Brake Control Algorithm for Emergency Stops (Which May Involve Steering) of Tow-Vehicle/Trailer CombinationsProceedings of the American Control ConferenceBoston, MA409Google Scholar
LeBlanc, D. J.Ervin, R. D.Johnson, G. E.Th, P. J.Venhovens, Gerber, G.DeSonia, R.Lin, C.-F., T. PiluttiUlsoy, A. G. 1996 CAPC: An Implementation of a Road-Departure Warning SystemIEEE Control Systems Magazine 16 61CrossRefGoogle Scholar
LeBlanc, D. J.Th. Venhovens, P. J.Lin, C.-F.Pilutti, T.Ervin, R. D.Ulsoy, A. G.MacAdam, C.Johnson, G. E. 1996 “Warning and Intervention System to Prevent Road-Departure Accidents,”Vehicle System Dynamics 25 383CrossRefGoogle Scholar
Lin, C. F.Ulsoy, A. G. 1996 Time to Lane Crossing Calculation and Characterization of Its Associated UncertaintyITS Journal 3 85Google Scholar
Lin, C. F.Ulsoy, A. G.LeBlanc, D. J. 1999 Lane Geometry Perception and the Characterization of Its Associated UncertaintyASME Journal of Dynamic Systems, Measurement and Control 121 1CrossRefGoogle Scholar
Lin, C.F.Ulsoy, A. G.LeBlanc, D. J. 2000 Vehicle Dynamics and External Disturbance Estimation for Vehicle Path PredictionIEEE Transactions on Control System Technology 8 508Google Scholar
Ma, W.-H.Peng, H. 1999 Worst-Case Evaluation Method for Dynamic SystemsASME Journal of Dynamic Systems, Measurement and Control 121 191CrossRefGoogle Scholar
Ma, W.-H.Peng, H. 1999 Worst-Case Vehicle Evaluation Methodology – Examples on Truck Rollover/Jackknifing and Active Yaw Control SystemsVehicle System Dynamics 32 389CrossRefGoogle Scholar
Michigan Department of Transportation 1981 Scandi ProjectFreeway Operations DivisionGoogle Scholar
Nguyen, H. G.Laisne, J. Y. 1992 Obstacle Detection Using Bi-Spectrum CCD Camera and Image ProcessingProceedings of the Intelligent Vehicles92 SymposiumDetroitGoogle Scholar
Niehaus, A.Stengel, R. F. 1991 An Expert System for Automated Highway DrivingIEEE Control Systems Magazine 11 53CrossRefGoogle Scholar
Pilutti, T.Raschke, U.Koren, Y. 1990 Computerized Defensive Driving Rules for Highway ManeuversProceedings of the American Control ConferenceSan Diego, CAGoogle Scholar
Pilutti, T.Ulsoy, A.G. 1999 Identification of Driver State for Lane Keeping TasksIEEE Transactions on Systems, Man and Cybernetics 29 486CrossRefGoogle Scholar
Pilutti, T.Ulsoy, A. G. 2003 Fuzzy Logic Based Virtual Rumble Strip for Road Departure Warning SystemsIEEE Transactions on Intelligent Transportation Systems 4 1CrossRefGoogle Scholar
Pilutti, T.Ulsoy, A. G .Hrovat, D. 1998 Vehicle Steering Intervention Through Differential BrakingASME Journal of Dynamic Systems, Measurement and Control 120 314CrossRefGoogle Scholar
Schneider, M. 2005 Automotive Radar – Status and TrendsProceedings of the German Microwave ConferenceUlm, GermanyGoogle Scholar
Sivashankar, N.Ulsoy, A. G. 1998 Yaw Rate Estimation for Vehicle Control ApplicationsASME Journal of Dynamics, Measurement, and Control 120 267CrossRefGoogle Scholar
Sun, Z.Chen, S. K. 2010 Automotive Active Safety SystemsIEEE Control Systems Magazine 30 36CrossRefGoogle Scholar
Thorpe, C.Hebert, M. H.Kanade, T.Shafer, S. A. 1988 Vision and Navigation for the Carnegie-Mellon NAVLABIEEE Transactions on Pattern Analysis and Machine Intelligence 10 362CrossRefGoogle Scholar
Truett, R. 1992
Ulke, W.Adomat, R.Butscher, K.Lauer, W. 1994
Yasui, Y.Margolis, D. L 1992 Lateral Control of Automobiles Using a Looking-Ahead SensorAVEC 92 292Google Scholar
Zwahlen, H. T.DeBald, D. P. 1986 Safety Aspects of Sophisticated In-Vehicle Information Displays and ControlsProceedings of the Human Factors Society Annual Meeting256Santa Monica, CAThe Human Factors SocietGoogle Scholar

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