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• W3204120028 endingPage "127005" @default.
• W3204120028 startingPage "127005" @default.
• W3204120028 abstract "• Road salt loading and transport analyzed for a twenty-year period of study. • Mass balance reveals chloride accumulation in a pristine drinking water reservoir. • 74% of the watershed chloride load was delivered through baseflow. • Chloride concentrations in tributary baseflow exceeded those in runoff. • High reservoir CSMR levels indicate potential risk for lead-based corrosion. Chloride exports from the widespread application of road salt serve as a primary contribution to water body salinity in cold climate regions. Road salt pollution is a concern in drinking water supplies due to the relationship between chloride concentration and water corrosivity. In the Northeastern U.S., researchers and water quality managers are interested in better understanding how management practices can mitigate the negative effects of road salt pollution. This study uses regression-based chloride load estimates from LOADEST to produce mass balances and analyze transport flow-paths to the Wachusett Reservoir from a predominantly rural watershed. A chloride mass balance for 2000 through 2019 revealed that reservoir and watershed export only recently reached a level similar to estimated inputs from road salt (11,200 ton/yr). Results from hydrograph and load separation techniques show that average loading (4300 ± 1300 ton/yr) and discharge from baseflow (3.2 ± 0.9 m 3 /s) contributed approximately 74% and 65% of the total loading (5800 ± 1800 ton/yr) and discharge (4.93 ± 1.50 m 3 /s), respectively from water years 2001 through 2019. Approximately 40% of the total annual tributary load (30% baseflow; 10% runoff) occurred in the spring (March–May) and is attributed to elevated baseflow conditions from snowmelt. As indicated by a baseflow chloride index, baseflow concentrations are 14% greater than the total concentrations measured in the tributaries. Therefore, the baseflow-dominated tributary chloride loading is due to a combination of greater discharge and chloride concentration in baseflow as compared to direct surface runoff. However, a long-term trend analysis suggests a slightly increased fraction of chloride loading via overland flow in several reservoir tributaries, potentially indicative of late 20th century land development. This study offers a unique monitoring approach for management authorities to better assess road salt pollution in water systems. The decadal response of the reservoir system reflects the slow-moving nature of the baseflow-dominated chloride loading and suggests that measurable water quality improvements will only be realized with a sustained long-term decrease in the amount of road salt applied." @default.
• W3204120028 created "2021-10-11" @default.
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• W3204120028 date "2021-12-01" @default.
• W3204120028 modified "2023-09-26" @default.
• W3204120028 title "Long-term analysis of road salt loading and transport in a rural drinking water reservoir watershed" @default.
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• W3204120028 cites W1539899870 @default.
• W3204120028 cites W1552359110 @default.
• W3204120028 cites W1666315280 @default.
• W3204120028 cites W1780899056 @default.
• W3204120028 cites W1964934763 @default.
• W3204120028 cites W1974882724 @default.
• W3204120028 cites W1981857937 @default.
• W3204120028 cites W1983934938 @default.
• W3204120028 cites W1984108903 @default.
• W3204120028 cites W1986637943 @default.
• W3204120028 cites W1992318298 @default.
• W3204120028 cites W1995848841 @default.
• W3204120028 cites W2004773683 @default.
• W3204120028 cites W2005616818 @default.
• W3204120028 cites W2010624461 @default.
• W3204120028 cites W2022242840 @default.
• W3204120028 cites W2022286776 @default.
• W3204120028 cites W2029683763 @default.
• W3204120028 cites W2030754183 @default.
• W3204120028 cites W2033904036 @default.
• W3204120028 cites W2036035095 @default.
• W3204120028 cites W2040048550 @default.
• W3204120028 cites W2042670492 @default.
• W3204120028 cites W2045790434 @default.
• W3204120028 cites W2046159920 @default.
• W3204120028 cites W2049587743 @default.
• W3204120028 cites W2052779216 @default.
• W3204120028 cites W2053682001 @default.
• W3204120028 cites W2062696342 @default.
• W3204120028 cites W2070676513 @default.
• W3204120028 cites W2073784354 @default.
• W3204120028 cites W2078691891 @default.
• W3204120028 cites W2081553277 @default.
• W3204120028 cites W2083934852 @default.
• W3204120028 cites W2089681632 @default.
• W3204120028 cites W2102400331 @default.
• W3204120028 cites W2103058488 @default.
• W3204120028 cites W2107619286 @default.
• W3204120028 cites W2111883767 @default.
• W3204120028 cites W2113465234 @default.
• W3204120028 cites W2117180236 @default.
• W3204120028 cites W2127777553 @default.
• W3204120028 cites W2130622515 @default.
• W3204120028 cites W2134613491 @default.
• W3204120028 cites W2147442934 @default.
• W3204120028 cites W2148594704 @default.
• W3204120028 cites W2160908538 @default.
• W3204120028 cites W2165914446 @default.
• W3204120028 cites W2166009213 @default.
• W3204120028 cites W2188791414 @default.
• W3204120028 cites W2318008566 @default.
• W3204120028 cites W2345010548 @default.
• W3204120028 cites W2554523149 @default.
• W3204120028 cites W2566720250 @default.
• W3204120028 cites W2584707107 @default.
• W3204120028 cites W2589264069 @default.
• W3204120028 cites W2602325165 @default.
• W3204120028 cites W2614679811 @default.
• W3204120028 cites W2744578311 @default.
• W3204120028 cites W2776714518 @default.
• W3204120028 cites W2778251009 @default.
• W3204120028 cites W2790050104 @default.
• W3204120028 cites W2808247934 @default.
• W3204120028 cites W2809324870 @default.
• W3204120028 cites W2897955170 @default.
• W3204120028 cites W2943901939 @default.
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• W3204120028 cites W2979642082 @default.
• W3204120028 cites W2996280824 @default.
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• W3204120028 doi "https://doi.org/10.1016/j.jhydrol.2021.127005" @default.
• W3204120028 hasPublicationYear "2021" @default.
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