Samuel A. Miller
Sam is a hydrologist in the Watershed Studies Section at the Virginia and West Virginia Water Science Center located in Richmond, VA.
Sam began working with the USGS in 2021. His research focuses on watershed-scale processes that affect downstream hydrologic response in urban and natural settings and is interested in how watershed management impacts changes in water quality and ecological health.
Education and Certifications
Ph.D. in Hydrology from the University of Wyoming
M.S. in Geology from Ohio University
B.S. in Environmental Geography & Environmental Geology from Ohio University
Science and Products
New study highlights the role of wastewater and landscape sources contributing to pesticide contamination in the Potomac River watershed
Wastewater treatment plant discharges can be a source of organic contaminants, including pesticides, to rivers. Pesticide concentrations were predicted based on wastewater percentages in stream water using a modeling tool, and verified with measured concentrations to identify other potential landscape sources.
Integrated Assessments of Potential Risks to Aquatic Organisms and Public Water Supply from Wastewater-Derived Chemical Mixtures in the Chesapeake Bay Watershed
Proper management of contaminants of emerging concern in the Chesapeake Bay region requires scientific efforts to understand the risk posed to aquatic resources from the “cocktail” of multiple contaminants that is often present. This research aims to assess the occurrence, sources, environmental impacts, biological effects, and the human health impacts of toxic contaminants in rivers.
Hydrologic Monitoring and Analysis to Support Water Resource Management in the City of Roanoke
The U.S. Geological Survey, partnering with the City of Roanoke and Virginia Tech, are working to monitor the water volume and quality in streams throughout the City of Roanoke. There are currently six monitoring stations within the city. Water-quality data are collected at five stations through real-time monitors and manual sampling to support the estimation of suspended sediment loads. The...
Factors contributing to pesticide contamination in riverine systems: The role of wastewater and landscape sources
Wastewater treatment plant (WWTP) discharges can be a source of organic contaminants, including pesticides, to rivers. An integrated model was developed for the Potomac River watershed (PRW) to determine the amount of accumulated wastewater percentage of streamflow (ACCWW) and calculate predicted environmental concentrations (PECs) for 14 pesticides in non-tidal National Hydrography Dataset Plus V
Authors
Samuel Adam Miller, Kaycee E. Faunce, Larry B. Barber, Jacob Fleck, Daniel Walter Burns, Jeramy Roland Jasmann, Michelle Hladik
Using high-frequency monitoring data to quantify city-wide suspended-sediment load and evaluate TMDL goals
Excess sediment is a common reason water bodies in the USA become listed as impaired resulting in total maximum daily loads (TMDL) that require municipalities to invest millions of dollars annually on management practices aimed at reducing suspended-sediment loads (SSLs), yet monitoring data are rarely used to quantify SSLs and track TMDL progress. A monitoring network was created to quantify the
Authors
Samuel Adam Miller, James S. Webber, John D. Jastram, Marcus F Aguilar
Science and Products
New study highlights the role of wastewater and landscape sources contributing to pesticide contamination in the Potomac River watershed
Wastewater treatment plant discharges can be a source of organic contaminants, including pesticides, to rivers. Pesticide concentrations were predicted based on wastewater percentages in stream water using a modeling tool, and verified with measured concentrations to identify other potential landscape sources.
Integrated Assessments of Potential Risks to Aquatic Organisms and Public Water Supply from Wastewater-Derived Chemical Mixtures in the Chesapeake Bay Watershed
Proper management of contaminants of emerging concern in the Chesapeake Bay region requires scientific efforts to understand the risk posed to aquatic resources from the “cocktail” of multiple contaminants that is often present. This research aims to assess the occurrence, sources, environmental impacts, biological effects, and the human health impacts of toxic contaminants in rivers.
Hydrologic Monitoring and Analysis to Support Water Resource Management in the City of Roanoke
The U.S. Geological Survey, partnering with the City of Roanoke and Virginia Tech, are working to monitor the water volume and quality in streams throughout the City of Roanoke. There are currently six monitoring stations within the city. Water-quality data are collected at five stations through real-time monitors and manual sampling to support the estimation of suspended sediment loads. The...
Factors contributing to pesticide contamination in riverine systems: The role of wastewater and landscape sources
Wastewater treatment plant (WWTP) discharges can be a source of organic contaminants, including pesticides, to rivers. An integrated model was developed for the Potomac River watershed (PRW) to determine the amount of accumulated wastewater percentage of streamflow (ACCWW) and calculate predicted environmental concentrations (PECs) for 14 pesticides in non-tidal National Hydrography Dataset Plus V
Authors
Samuel Adam Miller, Kaycee E. Faunce, Larry B. Barber, Jacob Fleck, Daniel Walter Burns, Jeramy Roland Jasmann, Michelle Hladik
Using high-frequency monitoring data to quantify city-wide suspended-sediment load and evaluate TMDL goals
Excess sediment is a common reason water bodies in the USA become listed as impaired resulting in total maximum daily loads (TMDL) that require municipalities to invest millions of dollars annually on management practices aimed at reducing suspended-sediment loads (SSLs), yet monitoring data are rarely used to quantify SSLs and track TMDL progress. A monitoring network was created to quantify the
Authors
Samuel Adam Miller, James S. Webber, John D. Jastram, Marcus F Aguilar