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• W3113504927 endingPage "104867" @default.
• W3113504927 startingPage "104867" @default.
• W3113504927 abstract "Groundwater samples from 32 principal aquifers across the United States (U.S.) provide a broad spatial scope of the occurrence and distribution of strontium (Sr) and are used to assess environments and factors that influence Sr concentration. Strontium is a common trace element in soils, rocks, and water and is ubiquitous in groundwater with detectable concentrations in 99.8% of samples (n = 4,824; median = 225 μg/L). Concentrations in 2.3% of samples exceeded the 4,000 μg/L health-based screening level. The relative importance of controlling factors on Sr concentration are spatially variable and partly dependent on the type of groundwater well. Three case settings illustrate controls on Sr concentration. For drinking-water supply wells, most high concentrations (>4,000 μg/L) were measured in samples from carbonate aquifers that resulted from water-rock interaction with Sr-bearing rocks and minerals. High Sr concentrations from monitoring wells were more common in unconsolidated sand and gravel aquifers in arid or semi-arid setting where shallow groundwater is affected by irrigation and evaporative concentration of dissolved constituents in combination with lithologic or applied Sr sources. Upwelling saline groundwater is also a source of Sr in some locations. Total dissolved solids concentration is an indicator of high Sr in all settings. An estimated 2.2 million people in the conterminous U.S. are potentially supplied water from public-supply wells with high Sr concentration, ~86% of whom use carbonate aquifers (with more than half supplied by the Floridan aquifer system). An additional 120,000 people are potentially supplied high-Sr-concentration water from domestic wells, more than half of whom (~58%) are in Texas. This study markedly expands the coverage of previous surveys of Sr in groundwater and is of interest given potential adverse human-health effects related to elevated concentrations of Sr and consideration of Sr for drinking-water regulation. Case settings with elevated Sr described for U.S. groundwater are likely indicative of settings and processes affecting Sr concentration in groundwater globally. • Sr is characterized in U.S. groundwater using an extensive dataset (n = 4,824). • High Sr (>4,000 μg/L) potentially affects drinking water for ~2.3 million people. • High Sr concentrations cluster in specific aquifers and settings. • Most high Sr occurs in carbonate lithology aquifers from water-rock interaction. • Processes in arid agricultural areas and saline groundwater mixing also important." @default.
• W3113504927 created "2021-01-05" @default.
• W3113504927 creator A5074463150 @default.
• W3113504927 date "2021-03-01" @default.
• W3113504927 modified "2023-09-25" @default.
• W3113504927 title "The occurrence and distribution of strontium in U.S. groundwater" @default.
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• W3113504927 doi "https://doi.org/10.1016/j.apgeochem.2020.104867" @default.
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