Drinking Water and Wastewater Infrastructure Science Team Active
The Team Studies Toxicants and Pathogens in Drinking Water
To understand if and when humans are exposed
The Team Studies Toxicants and Pathogens in Streams
To understand if and when wildlife are exposed
The Team Studies Toxicant and Pathogen Sources and Movement
The Team Develops Tools to Understand Health Effects
The team studies toxicants and pathogens in water resources from their sources, through watersheds, aquifers, and infrastructure to human and wildlife exposures. That information is used to develop decision tools that protect human and wildlife health.
Americans rely on treatment of drinking water and wastewater, and the maintenance of water distribution infrastructure to assure safe water supplies for the public and wildlife. New chemicals are manufactured and used every day. Populations grow and demographics shift. Treatment, conveyance and plumbing infrastructure ages, and new technologies are developed to detect contaminants (toxicants and pathogens) at low levels. Consequently, questions arise about the health effects of exposure to contaminants indivually or in complex mixtures.
The US Geological Survey’s Drinking Water and Wastewater Infrastructure Science Team provides information on processes that affect contaminants as they move from naturally occurring and human-caused sources through aquifers, aquatic environments, and infrastructure. This comprehensive understanding of contaminant profiles from source to exposure is used to develop decision tools to economically, effectively, and efficiently reduce wildlife or human exposure and associated health risks.
The Team prioritizes science in underserved urban and rural agricultural communities and in tribal nations, which are disproportionally impacted by geologic and climatic events, by drinking-water source limitations and resultant dependence on water-reuse and unregulated/unmonitored private-wells.
More Information
Date Visualization: "Drop by Drop" and "PFAS Interactive Tool"
GeoHEALTH–USGS Newsletter-Special Issue on Drinking Water
Questions That the Team Answers:
- Is treated wastewater effluent a source of contaminants to streams that serve as source water for publicly and self-supplied drinking water supplies?
- What contaminants are in tap waters from publicly and self-supplied drinking water sources?
- What factors influence the types of contaminants that are present in tap water?
- Are there hazards to fish and wildlife associated with exposure to low-levels of contaminants in streams that receive wastewater?
- What mitigation actions are the most efficient and cost effective at reducing exposure at the tap for humans? Or in water resources for wildlife?
- Can decision tools be established to to define, prioritize and mitigate human and wildlife health risks?
USGS featured science articles related to this science team’s activities.
USGS data releases associated with this science team.
USGS publications associated with this science team.
Evaluating long-term patterns of decreasing groundwater discharge through a lake-bottom permeable reactive barrier
Hydraulic tomography: 3D hydraulic conductivity and fracture network connectivity in a contaminated mudstone aquifer
Temporal and spatial variation in pharmaceutical concentrations in an urban river system
Pharmaceuticals, hormones, pesticides, and other bioactive contaminants in water, sediment, and tissue from Rocky Mountain National Park, 2012–2013
Acetylenotrophy: A hidden but ubiquitous microbial metabolism?
Bioactive contaminants of emerging concern in National Park waters of the northern Colorado Plateau, USA
Pharmaceutical manufacturing facility discharges can substantially increase the pharmaceutical load to U.S. wastewaters
Modeled de facto reuse and contaminants of emerging concern in drinking water source waters
Bioremediation in fractured rock: 1. Modeling to inform design, monitoring, and expectations
Bioremediation in fractured rock: 2. Mobilization of chloroethene compounds from the rock matrix
Estimating virus occurrence using Bayesian modeling in multiple drinking water systems of the United States
Estimating the high-arsenic domestic-well population in the conterminous United States
- Overview
The team studies toxicants and pathogens in water resources from their sources, through watersheds, aquifers, and infrastructure to human and wildlife exposures. That information is used to develop decision tools that protect human and wildlife health.
Americans rely on treatment of drinking water and wastewater, and the maintenance of water distribution infrastructure to assure safe water supplies for the public and wildlife. New chemicals are manufactured and used every day. Populations grow and demographics shift. Treatment, conveyance and plumbing infrastructure ages, and new technologies are developed to detect contaminants (toxicants and pathogens) at low levels. Consequently, questions arise about the health effects of exposure to contaminants indivually or in complex mixtures.
The US Geological Survey’s Drinking Water and Wastewater Infrastructure Science Team provides information on processes that affect contaminants as they move from naturally occurring and human-caused sources through aquifers, aquatic environments, and infrastructure. This comprehensive understanding of contaminant profiles from source to exposure is used to develop decision tools to economically, effectively, and efficiently reduce wildlife or human exposure and associated health risks.
The Team prioritizes science in underserved urban and rural agricultural communities and in tribal nations, which are disproportionally impacted by geologic and climatic events, by drinking-water source limitations and resultant dependence on water-reuse and unregulated/unmonitored private-wells.
More Information
Date Visualization: "Drop by Drop" and "PFAS Interactive Tool"
GeoHEALTH–USGS Newsletter-Special Issue on Drinking Water
Questions That the Team Answers:
- Is treated wastewater effluent a source of contaminants to streams that serve as source water for publicly and self-supplied drinking water supplies?
- What contaminants are in tap waters from publicly and self-supplied drinking water sources?
- What factors influence the types of contaminants that are present in tap water?
- Are there hazards to fish and wildlife associated with exposure to low-levels of contaminants in streams that receive wastewater?
- What mitigation actions are the most efficient and cost effective at reducing exposure at the tap for humans? Or in water resources for wildlife?
- Can decision tools be established to to define, prioritize and mitigate human and wildlife health risks?
- Science
USGS featured science articles related to this science team’s activities.
Filter Total Items: 26 - Data
USGS data releases associated with this science team.
Filter Total Items: 38No Result Found - Publications
USGS publications associated with this science team.
Filter Total Items: 89Evaluating long-term patterns of decreasing groundwater discharge through a lake-bottom permeable reactive barrier
Identifying and quantifying groundwater exchange is critical when considering contaminant fate and transport at the groundwater/surface-water interface. In this paper, areally distributed temperature and point seepage measurements are used to efficiently assess spatial and temporal groundwater discharge patterns through a glacial-kettle lakebed area containing a zero-valent iron permeable reactiveAuthorsTimothy D. McCobb, Martin A. Briggs, Denis R. LeBlanc, Frederick D. Day-Lewis, Carole D. JohnsonHydraulic tomography: 3D hydraulic conductivity and fracture network connectivity in a contaminated mudstone aquifer
No abstract available.AuthorsWarren Barrash, Claire R. Tiedeman, Colby Thrash, Jeremy Patterson, Carole D. JohnsonTemporal and spatial variation in pharmaceutical concentrations in an urban river system
Many studies have quantified pharmaceuticals in the environment, few however, have incorporated detailed temporal and spatial variability due to associated costs in terms of time and materials. Here, we target 33 physico-chemically diverse pharmaceuticals in a spatiotemporal exposure study into the occurrence of pharmaceuticals in the wastewater system and the Rivers Ouse and Foss (two diverse rivAuthorsEmily E. Burns, Laura J. Carter, Dana W. Kolpin, Jane Thomas-Oates, Alistair B.A. BoxallPharmaceuticals, hormones, pesticides, and other bioactive contaminants in water, sediment, and tissue from Rocky Mountain National Park, 2012–2013
Pharmaceuticals, hormones, pesticides, and other bioactive contaminants (BCs) are commonly detected in surface water and bed sediment in urban and suburban areas, but these contaminants are understudied in remote locations. In Rocky Mountain National Park (RMNP), Colorado, USA, BCs may threaten the reproductive success and survival of native aquatic species, benthic communities, and pelagic food wAuthorsWilliam A. Battaglin, Paul M. Bradley, Luke R. Iwanowicz, Celeste A. Journey, Heather L. Walsh, Vicki S. BlazerAcetylenotrophy: A hidden but ubiquitous microbial metabolism?
Acetylene (IUPAC name: ethyne) is a colorless, gaseous hydrocarbon, composed of two triple bonded carbon atoms attached to hydrogens (C2H2). When microbiologists and biogeochemists think of acetylene, they immediately think of its use as an inhibitory compound of certain microbial processes and a tracer for nitrogen fixation. However, what is less widely known is that anaerobic and aerobic microorAuthorsDenise M. Akob, John M. Sutton, Janna L. Fierst, Karl B. Haase, Shaun Baesman, George Luther, Laurence G. Miller, Ronald S. OremlandBioactive contaminants of emerging concern in National Park waters of the northern Colorado Plateau, USA
Pharmaceuticals and personal care products (PPCPs), wastewater indicators (WWIs), and pesticides (herein, Contaminants of Emerging Concern [CECs]) have been documented in surface waters throughout the world and have associated risks to aquatic life. While much research has focused on temperate and urbanized watersheds, less is known about CEC presence in semi-arid landscapes, where water availabilAuthorsRebecca H Weissinger, Brett R. Blackwell, Kristen Keteles, William A. Battaglin, Paul M. BradleyPharmaceutical manufacturing facility discharges can substantially increase the pharmaceutical load to U.S. wastewaters
Discharges from pharmaceutical manufacturing facilities (PMFs) previously have been identified as important sources of pharmaceuticals to the environment. Yet few studies are available to establish the influence of PMFs on the pharmaceutical source contribution to wastewater treatment plants (WWTPs) and waterways at the national scale. Consequently, a national network of 13 WWTPs receiving PMF disAuthorsTia-Marie Scott, Patrick J. Phillips, Dana W. Kolpin, Kaitlyn M. Finkelstein, Edward T. Furlong, William T. Foreman, James L. GrayModeled de facto reuse and contaminants of emerging concern in drinking water source waters
De facto reuse is the percentage of drinking water treatment plant (DWTP) intake potentially composed of effluent discharged from upstream wastewater treatment plants (WWTPs). Results from grab samples and a De Facto Reuse in our Nation's Consumable Supply (DRINCS) geospatial watershed model were used to quantify contaminants of emerging concern (CECs) concentrations at DWTP intakes to qualitativeAuthorsThuy Nguyen, Paul Westerhoff, Edward T. Furlong, Dana W. Kolpin, Angela L. Batt, Heath E. Mash, Kathleen M. Schenck, J. Scott Boone, Jacelyn Rice, Susan T. GlassmeyerBioremediation in fractured rock: 1. Modeling to inform design, monitoring, and expectations
Field characterization of a trichloroethene (TCE) source area in fractured mudstones produced a detailed understanding of the geology, contaminant distribution in fractures and the rock matrix, and hydraulic and transport properties. Groundwater flow and chemical transport modeling that synthesized the field characterization information proved critical for designing bioremediation of the source arAuthorsClaire R. Tiedeman, Allen M. Shapiro, Paul A. Hsieh, Thomas E. Imbrigiotta, Daniel J. Goode, Pierre Lacombe, Mary F. DeFlaun, Scott R. Drew, Carole D. Johnson, John H. Williams, Gary P. CurtisBioremediation in fractured rock: 2. Mobilization of chloroethene compounds from the rock matrix
A mass balance is formulated to evaluate the mobilization of chlorinated ethene compounds (CE) from the rock matrix of a fractured mudstone aquifer under pre- and postbioremediation conditions. The analysis relies on a sparse number of monitoring locations and is constrained by a detailed description of the groundwater flow regime. Groundwater flow modeling developed under the site characterizatioAuthorsAllen M. Shapiro, Claire R. Tiedeman, Thomas E. Imbrigiotta, Daniel J. Goode, Paul A. Hsieh, Pierre Lacombe, Mary F. DeFlaun, Scott R. Drew, Gary P. CurtisEstimating virus occurrence using Bayesian modeling in multiple drinking water systems of the United States
Drinking water treatment plants rely on purification of contaminated source waters to provide communities with potable water. One group of possible contaminants are enteric viruses. Measurement of viral quantities in environmental water systems are often performed using polymerase chain reaction (PCR) or quantitative PCR (qPCR). However, true values may be underestimated due to challenges involvedAuthorsEunice A. Varughese, Nichole E Brinkman, Emily M Anneken, Jennifer S Cashdollar, G. Shay Fout, Edward T. Furlong, Dana W. Kolpin, Susan T. Glassmeyer, Scott P KeelyEstimating the high-arsenic domestic-well population in the conterminous United States
Arsenic concentrations from 20 450 domestic wells in the U.S. were used to develop a logistic regression model of the probability of having arsenic >10 μg/L (“high arsenic”), which is presented at the county, state, and national scales. Variables representing geologic sources, geochemical, hydrologic, and physical features were among the significant predictors of high arsenic. For U.S. Census blocAuthorsJoseph D. Ayotte, Laura Medalie, Sharon L. Qi, Lorraine C. Backer, Bernard T. Nolan