Literature DB >> 18571283

Arsenic in groundwaters in the Northern Appalachian Mountain belt: a review of patterns and processes.

Stephen C Peters1.   

Abstract

Naturally occurring arsenic in the bedrock of the Northern Appalachian Mountain belt was first recognized in the late 19th century. The knowledge of the behavior of arsenic in groundwater in this region has lagged behind nearly a century, with the popular press reporting on local studies in the early 1980s, and most peer-reviewed research articles on regional patterns conducted and written in the late 1990s and early 2000s. Research reports have shown that within this high arsenic region, between 6% and 22% of households using private drinking water wells contain arsenic in excess of 10 microg/L, the United States Environmental Protection Agency's maximum contaminant level. In nearly all reports, arsenic in drinking water was derived from naturally occurring geologic sources, typically arsenopyrite, substituted sulfides such as arsenian pyrite, and nanoscale minerals such as westerveldite. In most studies, arsenic concentrations in groundwater were controlled by pH dependent adsorption to mineral surfaces, most commonly iron oxide minerals. In some cases, reductive dissolution of iron minerals has been shown to increase arsenic concentrations in groundwater, more commonly associated with anthropogenic activities such as landfills. Evidence of nitrate reduction promoting the presence of arsenic(V) and iron(III) minerals in anoxic environments has been shown to occur in surface waters, and in this manuscript we show this process perhaps applies to groundwater. The geologic explanation for the high arsenic region in the Northern Appalachian Mountain belt is most likely the crustal recycling of arsenic as an incompatible element during tectonic activity. Accretion of multiple terranes, in particular Avalonia and the Central Maine Terrane of New England appear to be connected to the presence of high concentrations of arsenic. Continued tectonic activity and recycling of these older terranes may also be responsible for the high arsenic observed in the Triassic rift basins, e.g. the Newark Basin. There are only two well-known cases of anthropogenic contamination of the environment in the northern Appalachian Mountain belt, both of which are industrial sites with surface contamination at that infiltrated the local groundwater.

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Year:  2008        PMID: 18571283     DOI: 10.1016/j.jconhyd.2008.04.001

Source DB:  PubMed          Journal:  J Contam Hydrol        ISSN: 0169-7722            Impact factor:   3.188


  12 in total

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Authors:  Qiang Yang; Hun Bok Jung; Robert G Marvinney; Charles W Culbertson; Yan Zheng
Journal:  Environ Sci Technol       Date:  2012-02-09       Impact factor: 9.028

2.  Flow and sorption controls of groundwater arsenic in individual boreholes from bedrock aquifers in central Maine, USA.

Authors:  Qiang Yang; Charles W Culbertson; Martha G Nielsen; Charles W Schalk; Carole D Johnson; Robert G Marvinney; Martin Stute; Yan Zheng
Journal:  Sci Total Environ       Date:  2014-05-17       Impact factor: 7.963

3.  Heterogeneous arsenic enrichment in meta-sedimentary rocks in central Maine, United States.

Authors:  Beth O'Shea; Megan Stransky; Sara Leitheiser; Patrick Brock; Robert G Marvinney; Yan Zheng
Journal:  Sci Total Environ       Date:  2014-05-24       Impact factor: 7.963

4.  At the crossroads: Hazard assessment and reduction of health risks from arsenic in private well waters of the northeastern United States and Atlantic Canada.

Authors:  Yan Zheng; Joseph D Ayotte
Journal:  Sci Total Environ       Date:  2014-11-18       Impact factor: 7.963

5.  Spatial modeling for groundwater arsenic levels in North Carolina.

Authors:  Dohyeong Kim; Marie Lynn Miranda; Joshua Tootoo; Phil Bradley; Alan E Gelfand
Journal:  Environ Sci Technol       Date:  2011-04-29       Impact factor: 9.028

6.  Elevated Bladder Cancer in Northern New England: The Role of Drinking Water and Arsenic.

Authors:  Dalsu Baris; Richard Waddell; Laura E Beane Freeman; Molly Schwenn; Joanne S Colt; Joseph D Ayotte; Mary H Ward; John Nuckols; Alan Schned; Brian Jackson; Castine Clerkin; Nathaniel Rothman; Lee E Moore; Anne Taylor; Gilpin Robinson; Gm Monawar Hosain; Karla R Armenti; Richard McCoy; Claudine Samanic; Robert N Hoover; Joseph F Fraumeni; Alison Johnson; Margaret R Karagas; Debra T Silverman
Journal:  J Natl Cancer Inst       Date:  2016-05-02       Impact factor: 13.506

7.  Spatial pattern of groundwater arsenic occurrence and association with bedrock geology in greater Augusta, Maine.

Authors:  Qiang Yang; Hun Bok Jung; Charles W Culbertson; Robert G Marvinney; Marc C Loiselle; Daniel B Locke; Heidi Cheek; Hilary Thibodeau; Yan Zheng
Journal:  Environ Sci Technol       Date:  2009-04-15       Impact factor: 9.028

8.  Groundwater co-contaminant behavior of arsenic and selenium at a lead and zinc smelting facility.

Authors:  Richard T Wilkin; Tony R Lee; Douglas G Beak; Robert Anderson; Betsy Burns
Journal:  Appl Geochem       Date:  2018-02-01       Impact factor: 3.524

9.  Assessing arsenic exposure in households using bottled water or point-of-use treatment systems to mitigate well water contamination.

Authors:  Andrew E Smith; Rebecca A Lincoln; Chris Paulu; Thomas L Simones; Kathleen L Caldwell; Robert L Jones; Lorraine C Backer
Journal:  Sci Total Environ       Date:  2015-12-10       Impact factor: 7.963

10.  Estimating the High-Arsenic Domestic-Well Population in the Conterminous United States.

Authors:  Joseph D Ayotte; Laura Medalie; Sharon L Qi; Lorraine C Backer; Bernard T Nolan
Journal:  Environ Sci Technol       Date:  2017-10-18       Impact factor: 9.028

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