Joshua Blackstock
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Also affiliated: United States Geological Survey (2019); Agricultural Research Service (2023–2026); United States Department of Agriculture (2023–2026); Dale Bumpers Small Farms Research Center (2023–2026)
Research Areas
Biomedical Subjects
Links
Biography and Research Information
OverviewAI-generated summary
Joshua Blackstock's research focuses on environmental monitoring and the study of water resources, particularly groundwater in Arkansas. His work investigates spatial prediction, model uncertainty, and the factors influencing environmental conditions, as demonstrated by his research on heavy metal concentrations in soils across the USA. Blackstock has also examined the characteristics of groundwater resources in Arkansas, including their protection and management. His publications include studies on the dynamic geospatial modeling of mycotoxin contamination in crops and the development of low-cost monitoring platforms for atmospheric and soil CO2. His research network includes collaborations on isotope studies of moisture sources and groundwater flow paths in other regions.
Metrics
- h-index: 6
- Publications: 251
- Citations: 242
Selected Publications
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Evaluating groundwater–surface water interactions at selected streams in the Mississippi River Valley alluvial aquifer, USA, and comparison to regional potentiometric surfaces (2025)
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Surface water irrigation reservoirs improve groundwater recovery in a heavily stressed aquifer (2025)
Collaboration Network
Top Collaborators
- Pixel-based spatiotemporal statistics from remotely sensed imagery improves spatial predictions and sampling strategies of alluvial soils
- Vegetation Masking of Remote Sensing Data Aids Machine Learning for Soil Fertility Prediction
- Spatiotemporal patterns of pH related to streamflow variability, drought conditions, and bedrock lithology in acid sensitive streams within a humid, subtropical catchment: Mulberry River, Arkansas, USA
- Surface water irrigation reservoirs improve groundwater recovery in a heavily stressed aquifer
- Interpreting the spatial distribution of soil properties with a physically-based distributed hydrological model
Showing 5 of 6 shared publications
- Monitoring Atmospheric, Soil, and Dissolved CO2 Using a Low-Cost, Arduino Monitoring Platform (CO2-LAMP): Theory, Fabrication, and Operation
- Englacial Drainage Drives Positive Feedback Depression Growth on the Debris‐Covered Ngozumpa Glacier, Nepal
- LOW-COST MONITORING OF CO2 CONCENTRATIONS AND FLUXES WITHIN THE CRITICAL ZONE: INSIGHTS FROM THE SPRINGFIELD PLATEAU AQUIFER, NORTHWEST ARKANSAS
- Pixel-based spatiotemporal statistics from remotely sensed imagery improves spatial predictions and sampling strategies of alluvial soils
- Vegetation Masking of Remote Sensing Data Aids Machine Learning for Soil Fertility Prediction
- Interpreting the spatial distribution of soil properties with a physically-based distributed hydrological model
- Pixel-based spatiotemporal statistics from remotely sensed imagery improves spatial predictions and sampling strategies of alluvial soils
- Vegetation Masking of Remote Sensing Data Aids Machine Learning for Soil Fertility Prediction
- Interpreting the spatial distribution of soil properties with a physically-based distributed hydrological model
- Pixel-based spatiotemporal statistics from remotely sensed imagery improves spatial predictions and sampling strategies of alluvial soils
- Vegetation Masking of Remote Sensing Data Aids Machine Learning for Soil Fertility Prediction
- Interpreting the spatial distribution of soil properties with a physically-based distributed hydrological model
- Pixel-based spatiotemporal statistics from remotely sensed imagery improves spatial predictions and sampling strategies of alluvial soils
- Vegetation Masking of Remote Sensing Data Aids Machine Learning for Soil Fertility Prediction
- Interpreting the spatial distribution of soil properties with a physically-based distributed hydrological model
- Monitoring Atmospheric, Soil, and Dissolved CO2 Using a Low-Cost, Arduino Monitoring Platform (CO2-LAMP): Theory, Fabrication, and Operation
- LOW-COST MONITORING OF CO2 CONCENTRATIONS AND FLUXES WITHIN THE CRITICAL ZONE: INSIGHTS FROM THE SPRINGFIELD PLATEAU AQUIFER, NORTHWEST ARKANSAS
- LOW-COST MONITORING OF CO2 CONCENTRATIONS AND FLUXES WITHIN THE CRITICAL ZONE: INSIGHTS FROM THE SPRINGFIELD PLATEAU AQUIFER, NORTHWEST ARKANSAS
- GROUNDWATER-LEVEL CHANGE AND GROUNDWATER-SURFACE EXCHANGE IN THE NORTHWESTERN MISSISSIPPI RIVER ALLUVIAL AQUIFER IMPOSED BY SEASONAL PUMPING AND CLIMATE CHANGE
- Monitoring Atmospheric, Soil, and Dissolved CO2 Using a Low-Cost, Arduino Monitoring Platform (CO2-LAMP): Theory, Fabrication, and Operation
- LOW-COST MONITORING OF CO2 CONCENTRATIONS AND FLUXES WITHIN THE CRITICAL ZONE: INSIGHTS FROM THE SPRINGFIELD PLATEAU AQUIFER, NORTHWEST ARKANSAS
- Spatiotemporal patterns of pH related to streamflow variability, drought conditions, and bedrock lithology in acid sensitive streams within a humid, subtropical catchment: Mulberry River, Arkansas, USA
- Pre‐instrumental perspectives on Arkansas River cross‐watershed flow variability
- Pixel-based spatiotemporal statistics from remotely sensed imagery improves spatial predictions and sampling strategies of alluvial soils
- Vegetation Masking of Remote Sensing Data Aids Machine Learning for Soil Fertility Prediction
- Vegetation Masking of Remote Sensing Data Aids Machine Learning for Soil Fertility Prediction
- Interpreting the spatial distribution of soil properties with a physically-based distributed hydrological model
- Surface water irrigation reservoirs improve groundwater recovery in a heavily stressed aquifer
- Evaluating groundwater–surface water interactions at selected streams in the Mississippi River Valley alluvial aquifer, USA, and comparison to regional potentiometric surfaces
- Surface water irrigation reservoirs improve groundwater recovery in a heavily stressed aquifer
- Evaluating groundwater–surface water interactions at selected streams in the Mississippi River Valley alluvial aquifer, USA, and comparison to regional potentiometric surfaces
- Surface water irrigation reservoirs improve groundwater recovery in a heavily stressed aquifer
- Evaluating groundwater–surface water interactions at selected streams in the Mississippi River Valley alluvial aquifer, USA, and comparison to regional potentiometric surfaces
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