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Arsenic contamination of lake sediments in Florida: evidence of herbicide mobility from watershed soils

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Abstract

Organic arsenical herbicides, which include monosodium methylarsonate (MSMA), have been applied to golf courses and lawns throughout Florida, USA, since the 1950s. These products convert rapidly to inorganic forms of arsenic (As) in soils and are mobilized readily. Leachates have been known to contaminate groundwater and surface waters, although past studies have not examined whether use of these products has led to significant As accumulation in lake sediments. We used paleolimnological methods to document the depositional history and inventories of total As in sediments and porewaters of Little Lake Jackson in Florida, which is adjacent to three golf courses. Six sediment cores, four of which were 210Pb dated, showed porewater total As concentrations as high as 435 μg l−1, and dry-sediment total As concentrations as high as 148 mg kg−1. Approximately 537 kg of total As is present in >19,000 metric tons of sediment (dry mass), and an additional 18 kg of As is dissolved in 10.8 × 104 m3 of porewaters. Total As content in surface sediments (mean = 47.3 mg kg−1) exceeds the consensus-based sedimentary concentration for probable toxicity effects in freshwater benthic fauna. Surface and subsurface waters flow to the lake from topographically higher areas to the west, where golf courses and residential areas are located. Total As concentrations were elevated highly in monitoring wells and in a stream that flows between the golf courses and lake, but As was below detection limits in wells that were located at the distal perimeter of the golf courses. Subsurface and surface waters exit the lake towards topographically lower areas to the east. Nearly all As in sediments remains bound in the solid phase, indicating that As sedimentary profiles largely reflect depositional history. Sedimentary As concentrations are correlated strongly with aluminum and iron, which suggests that As was scavenged from lake waters during the past. Sedimentary As concentrations increased until the 1980s, then declined somewhat to the present time. Dissolved As was scavenged efficiently from the water column when hypolimnetic waters were oxygenated persistently, but after eutrophication led to a seasonally anoxic hypolimnion in the 1980s, apparently less As was co-precipitated, and more was lost to hydrological outflow. Arsenic accumulation in sediments might be common in areas where As derived from organic arsenical herbicide applications is directed by shallow water tables towards adjacent lakes.

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Acknowledgements

We thank Keith Dominey at Waters Analytical Laboratory for technical support. Terrence Quinn provided use of ICP-OES equipment. Xuefeng (Bob) Wang, Clell Ford, and Charlotte Clayton helped with collection of sediment cores, and Monique Baughman helped with collection of stream and well samples. Todd Robbins assisted with sediment digestion and with 210Pb dating. James Sickman, John Smol, and Mark Brenner provided helpful review of the manuscript. Partial support for this study was provided by the University of South Florida-St. Petersburg’s Environmental Science, Policy, and Geography Program.

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Correspondence to Thomas J. Whitmore.

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Whitmore, T.J., Riedinger-Whitmore, M.A., Smoak, J.M. et al. Arsenic contamination of lake sediments in Florida: evidence of herbicide mobility from watershed soils. J Paleolimnol 40, 869–884 (2008). https://doi.org/10.1007/s10933-008-9204-8

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  • DOI: https://doi.org/10.1007/s10933-008-9204-8

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