Abstract
The environmental impacts of 16 different contaminants originating from the E18 Highway (17,510 annual average daily traffic) were studied over the initial months of the highway’s operational life. Investigative methods used included electrical resistivity surveying, water chemistry analyses, soil analyses, distribution modeling, and transportation modeling of contaminants. The study conclusively showed a year-round infiltration due to melting of the snowpack from road salt, and a strong preferential, anthropogenic pathway due to increased hydraulic conductivities of road construction materials relative to in situ soils. The resistivity surveys produced values well below the expected values for the highway materials, indicating increased ionic content within the unsaturated zone. Time lapse resistivity modeling showed a clear downwards spreading of contamination from the roadway to subsurface distances greater than 5 m. Elevated concentrations of nearly every studied contaminant relative to baseline values were observed, with many metal concentrations within the snow pack averaging values in excess of the Swedish Environmental Protection Agency’s groundwater limitations. Distribution modeling demonstrated a potential offset of peak values from the road surface due to plowing and splash transport processes, and indicated different distribution behavior during winter months than during summer months. One-dimensional transport modeling demonstrated the importance of adsorption and other retentive factors to the migration of contaminants to groundwater and provided an estimate for potential long-term contaminant concentrations.
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Aler, J., Du Mouza, J., & Arnould, M. (1996). Measurement of the fragmentation efficiency of rock mass blasting and its mining applications. International Journal of Rock Mechanics and Mining Sciences & Geomechanics Abstracts, 33(2), 125–139.
Bäckström, M., Karlsson, S., Bäckman, L., Folkeson, L., & Lind, B. (2004). Mobilization of heavy metals by deicing salts in a roadside environment. Water Research, 38(3), 720–732.
Béchet, D., Durin, B., Legret, M., & Le Cloirec, P. (2010). Size fractionation of heavy metals in highway runoff waters. Highway and Urban Environment: Alliance for Global Sustainability Book Series, 17(4), 235–244.
Bennet, G. D., & Zheng, C. (2002). Applied contaminant transport modelling (2nd ed.). Maryland: Wiley.
Berkowitz, B., Dror, I., & Yaron, B. (2008). Contaminant geochemistry: interactions and transport in the subsurface environment. London: Springer.
Blomqvist, G. (2001). Deicing salt and the roadside environment: air-borne exposure, damage to Norway spruce and system monitoring. Dissertation, TRITA-AMI-PHD 1041, Division of Land and Water Resources, Department of Civil and Environmental Engineering, Royal Institute of Technology (KTH), Stockholm.
Blomqvist, G., & Johansson, E. L. (1999). Airborne spreading of de-icing salt—a case study. The Science of the Total Environment, 235(1–3), 161–168.
Cunningham, M. A., Snyder, E., Yonkin, D., Ross, M., & Elsen, T. (2007). Accumulation of deicing salts in soils in an urban environment. Urban Ecosystems, 11(1), 17–31.
European Council (1998). Council directive 98/83/EC of 3 November 1998 on the quality of water intended for human consumption as amended by Regulations 1882/2003/EC and 596/2009/E. European Union: Official Journal of the European Communities.
Fujiwara, F. G., Gómez, D. R., Dawidowski, L., Perelmane, P., & Faggie, A. (2011). Metals associated with airborne particulate matter in road dust and tree bark collected in a megacity (Buenos Aires, Argentina). Ecological Indicators, 11(2), 240–247.
Geotomo Software (2010). RES2DINV ver. 3.59 manual: Rapid 2-D resistivity and IP inversion using the least-squares method. Penang, Malaysia: Geotomo Software.
Gustafsson, J. P., Jacks, G., Simonsson, M., & Nilsson, I. (2007). Soil and water chemistry (p. 169). Stockholm: Royal Technical Institute, Department of Land and Water Resources.
Hallberg, M., Renman, G., & Lundbom, T. (2007). Seasonal variations of ten metals in highway runoff and their partition between dissolved and particulate matter. Water, Air, and Soil Pollution, 181(1–4), 183–191.
Harrison, R. M., & Wilson, S. J. (1985). The chemical composition of highway drainage waters I. Major ions and selected trace metals. The Science of the Total Environment, 43(1–2), 63–77.
Hautala, E. L., Rekilä, R., Tarhanen, J., & Ruuskanen, J. (1995). Deposition of motor vehicle emissions and winter maintenance along roadside assessed by snow analyses. Environmental Pollution, 81(1), 45–49.
Hoffman, E. J., Latimer, J. S., Hunt, C. D., Mills, G. L., & Quinn, J. G. (1985). Stormwater runoff from highways. Water, Air, and Soil Pollution, 25(4), 349–364.
Howard, K., & Haynes, J. (1993). Groundwater contamination due to road de-icing chemicals—salt balance implications. Geoscience Canada, 20(1), 1–8.
Leroux, V., & Dahlin, T. (2006). Time-lapse resistivity investigations for imaging saltwater transport in glaciofluvial deposits. Environmental Geology, 49(3), 347–358.
Loke, H. (1999). Rapid 2D resistivity forward modelling using the finite difference and finite-element methods. http://www.abem.se. Accessed on 21 February 2011.
Lowrie, W. (2007). Fundamentals of geophysics (2nd ed.). Cambridge: Cambridge University Press.
Lundmark, A., & Olofsson, B. (2007). Cl deposition and distribution in soils along a deiced highway—assessment using different methods of measurement. Water, Air, and Soil Pollution, 182(1–4), 173–185.
Lundmark, A., & Jansson, P. E. (2008). Estimating the fate of de-icing salt in a roadside environment by combining modelling and field observations. Water, Soil and Air Pollution, 195(1–4), 215–232.
Meuser, H. (2010). Contamination influencing soil properties in Contaminated Urban Soils. Environmental Pollution, 18, 195–242.
Milsom, J. (2003). Field geophysics (3rd ed.). Hoboken, NJ: Wiley.
Olofsson, B., & Lundmark, A. (2008). Monitoring the impact of de-icing salts on roadside soils with time lapse resistivity measurements. Environmental Geology, 57(1), 217–229.
Olofsson, B., Jernberg, H., & Rosenqvist, A. (2005). Tracing leachates at waste sites using geophysical and geochemical modelling. Environmental Geology, 46(5), 720–732.
Opher, T., & Friedler, E. (2010). Factors affecting highway runoff quality. Urban Water Journal, 7(3), 155–172.
Ramakrishna, D. M., & Viraraghavan, T. (2005). Environmental impact of chemical deicers—a review. Water, Air, and Soil Pollution, 166(1–4), 49–63.
SGU (2008). Sveriges geologiska undersöknings författningssamling. SGU-FS 2008:2. Sveriges Geologiska Undersökning: ISSN 1653–7300.
SMHI (2011) Swedish Meteorological and Hydrological Institute. http://www.smhi.se. Accessed on 22 February 2011.
Swedish EPA (2008). Generic guideline values for contaminated soils. http://www.swedishepa.se. Accessed on 25 January 2011.
Talme, O., & Almén, K. E. (1975). Jordartsanalys: Laboratorieanvisningar, Del 1. Stockholm: University of Stockholm.
Trafikverket (2002). ATB Vinter 2003: VV Publ 2002:148, Allmän Teknisk Beskrivning. Borlänge, Trafikverket (Swedish Transport Administration).
Trafikverket Website (2011) (Swedish Transport Administration). http://trafikverket.se. Accessed on 17 May 2011.
Turer, D. G., & Maynard, J. B. (2003). Heavy metal contamination in highway soils. Comparison of Corpus Christi, Texas and Cincinnati, Ohio shows organic matter is key to mobility. Clean Technologies and Environmental Policy, 4(4), 235–245.
Turer, D., Maynard, J. B., & Sansalone, J. (2001). Heavy metal contamination in soils of urban highways comparison between runoff and soil concentrations at Cincinnati, Ohio. Water, Air, and Soil Pollution, 132(3–4), 293–314.
Vaze, J., & Chiew, F. H. S. (2002). Experimental study of pollutant accumulation on an urban road surface. Urban Water, 4(4), 379–389.
Yisa, J. (2010). Heavy metal contamination of road deposited sediments. American Journal of Applied Sciences, 7(9), 1231–1236.
Acknowledgments
The authors would like to acknowledge the financial support for this project which was received from the Swedish Transport Administration (Trafikverket) regarding the analysis of soil, water, and snow samples, as well as for access to the research site which made this study possible. The authors would also like to acknowledge the comments of the two anonymous reviewers for comments which helped improve the quality of this paper.
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Earon, R., Olofsson, B. & Renman, G. Initial Effects of a New Highway Section on Soil and Groundwater. Water Air Soil Pollut 223, 5413–5432 (2012). https://doi.org/10.1007/s11270-012-1290-6
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DOI: https://doi.org/10.1007/s11270-012-1290-6