Modeling Ambient Carbon Monoxide Pollutant Due to Road Traffic
Commenced in January 2007
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Modeling Ambient Carbon Monoxide Pollutant Due to Road Traffic

Authors: Anjaneyulu M.V.L.R., Harikrishna M., Chenchuobulu S.

Abstract:

Rapid urbanization, industrialization and population growth have led to an increase in number of automobiles that cause air pollution. It is estimated that road traffic contributes 60% of air pollution in urban areas. A case by case assessment is required to predict the air quality in urban situations, so as to evolve certain traffic management measures to maintain the air quality levels with in the tolerable limits. Calicut city in the state of Kerala, India has been chosen as the study area. Carbon Monoxide (CO) concentration was monitored at 15 links in Calicut city and air quality performance was evaluated over each link. The CO pollutant concentration values were compared with the National Ambient Air Quality Standards (NAAQS), and the CO values were predicted by using CALINE4 and IITLS and Linear regression models. The study has revealed that linear regression model performs better than the CALINE4 and IITLS models. The possible association between CO pollutant concentration and traffic parameters like traffic flow, type of vehicle, and traffic stream speed was also evaluated.

Keywords: CO pollution, Modelling, Traffic stream parameters.

Digital Object Identifier (DOI): doi.org/10.5281/zenodo.1328786

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[1] Ditty R, (1995), ÔÇÿÔÇÿEvaluation of Ambient Air Quality Levels due to road Traffic in Calicut City--, unpublished M. Tech thesis, Department of Civil Engineering, Regional Engineering College, Calicut.
[2] Goyal, P. and Rama Krishan, T.V.B.P.S. (1999), "A line source model for Delhi" Transportation Research Part D, Vol.14, No.4, pp 241-249.
[3] Hitoshi Kono , Shozo Ito, 1990, ÔÇÿ A Micro scale Dispersion for Motor Vehicle Exhaust Gas in Urban Areas-, Journal of Atmospheric Environment , Vol 24 B , No.2, pp 243- 251.
[4] Liping Xia and Yapang Shao (2005), ÔÇÿModeling of Traffic Flow and Air Pollution Emission with application to Hong Kong Island-, Journal of Environmental Modeling and Software 20, pp 1175-1188.
[5] Mrinal K. Ghose, R. Paul, S.K. Banerjee (2004), ÔÇÿAssessments of Impacts of vehicular Emissions on urban air quality and its Management in Indian context-, Journal of Enviroenment Science and Policy, 7, pp 345-351.
[6] Nagendra, S.M.S. and Khare, M. (2002), "Line source emission modeling" Atmospheric Environment, No.36, pp 2083-2098.
[7] Potogolu, D. and Kanarogolu, P.S. (2004), "CO emissions from passenger vehicles" Canada CSPA.
[8] Shin-ichi O Komato, Keizo Kobayachi (1990), ÔÇÿComparative Study on Estimation Methods for NOx Emissions for a Roadway, Journal of Atmospheric Environment-, Vol 24 A, No.6, pp 1535- 1544.
[9] Venkatram, A. and Horst, T.w. (2005), "Approximating dispersion from a finite line source" Atmospheric Environment, No.40, pp 2401-2408.
[10] Yu Meng , Debbie A. Neimmer, (1998), ÔÇÿ Project Level Carbon Monoxide Hot- spot Analysis for Level of Service D Intersections-, Transportation Research Record No. 1641, pp 73-80.