Fuzzy Clustering of Locations for Degree of Accident Proneness based on Vehicle User Perceptions

The rapid urbanization of cities has a bane in the form road accidents that cause extensive damage to life and limbs. A number of location based factors are enablers of road accidents in the city. The speed of travel of vehicles is non-uniform among locations within a city. In this study, the perception of vehicle users is captured on a 10-point rating scale regarding the degree of variation in speed of travel at chosen locations in the city. The average rating is used to cluster locations using fuzzy c-means clustering and classify them as low, moderate and high speed of travel locations. The high speed of travel locations can be classified proactively to ensure that accidents do not occur due to the speeding of vehicles at such locations. The advantage of fuzzy c-means clustering is that a location may be a part of more than one cluster to a varying degree and this gives a better picture about the location with respect to the characteristic (speed of travel) being studied.




References:
[1] Fang Clara Fang, Lily Elefteriadou, Kelly Klaver Pecheux and Martin T
Pietrucha. (2003) Using Fuzzy Clustering of User Perceptions to Define
Levels of Service a Signalized Intersections, Journal of Transportation
Engineering, Vol. 129(6), pp. 657- 663.
[2] Hauer E. (1992) Empirical bayes approach to the estimation of unsafety:
the multivariate regression method, Accident Analysis and
Prevention, Vol. 24(5), pp. 457-477
[3] Jayanth Jacob and Suganthi L, (2006) Identifying Accident causing
Factors for different Vehicle User Categories (Unpublished).
[4] Narayanan R, Udayakumar R, Kumar K, and Subburaj L., (2003)
Quantification of Congestion using Fuzzy Logic and Network Analysis
using GIS, Map India Conference, www.gisdevelopment.net .
[5] Nicholson A.J. (1991) Understanding the stochastic nature of accident
occurrence, Australian Road Research, Vol. 21 (1), pp. 30-39.
[6] Nikhil R.Pal, James C.Bezdek and Richard J. Hathaway (1996),
"Sequential Competitive Learning and the fuzzy C-means Clustering
Algorithms", Neural Networks, Vol 9, No 5, Pg 787-796, Pergamon,
Elsevier.
[7] Rajiv Gupta and Deelesh Mandloi (2005) Evaluation of Accident Black
Spots on Roads using Geographical Information Systems (GIS), The
Geospatial Resource Portal.
[8] Sabey B.E., and Taylor H. (1980) The known risks we run: the highway,
Societal risk assessment-how safe is safe enough, R.E Schwing and W.A
Albers, cds., Plenum Press, New York, N.Y., pp. 43-63 .
[9] Tarek Sayed, Walid Abdelwahab and Frank Navin. (1995) Identifying
Accident-Prone Locations using Fuzzy Pattern Recognition, Journal of
Transportation Engineering, Vol. 121(4), pp. 352-358.
[10] Treat J.R. (1980) A study of pre-crash factors involved in traffic
accidents, Rep., HSRI 10/11, Highway Safety Research Institute (HSRI),
Ann Arbor, Michigan.
[11] Wright, C, Abbes, C.R, and Jarret D.F. (1988) Estimation the regression
to the mean effect associated with road accident black spot treatment:
towards a more realistic approach, Accident Analysis and Prevention,
Vol 3, pp.199-214
[12] Yi-Lang Chen. (2007) Driver personality characteristics related to selfreported
accident involvement and mobile phone use while driving,
Safety Science, Vol 45, pp. 823-831.