Brian E. Haggard
Affiliation confirmed via AI analysis of OpenAlex, ORCID, and web sources.
Director
Also affiliated: Oklahoma State University (2001); Texas Tech University (2014); Agricultural Research Service (2003–2006); United States Department of Agriculture (2003–2017); University of Wisconsin–Madison (2001); North Carolina State University (2018); University of Arkansas System (2005–2024); Engineering Systems (United States) (2017); National Soil Erosion Research Laboratory (2005); International Water Management Institute (IWMI) (2017)
Faculty Researcher
Biological and Agricultural Engineering
Research Areas
Biomedical Subjects
Links
Biography and Research Information
OverviewAI-generated summary
Brian E. Haggard's research focuses on environmental monitoring and water quality, particularly concerning nutrient dynamics and the occurrence of harmful algal blooms in freshwater systems. His work investigates the influence of agricultural practices, such as the use of poultry litter and swine slurry, on phosphorus and nitrogen forms in runoff, and their subsequent transformations in aquatic environments. Haggard also studies the factors affecting cyanobacterial bloom formation and microcystin production, including nutrient concentrations and physicochemical properties of water bodies. His recent publications explore the predictive capabilities of machine learning models for monitoring harmful algal blooms and chlorophyll-a levels, and the relationship between raw fluorescence measurements and cyanobacterial toxins. He has also examined the impact of natural characteristics and human activities on turbidity and ion concentrations in streams.
Metrics
- h-index: 37
- Publications: 215
- Citations: 3,947
Selected Publications
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Nutrient dynamics in restored and unrestored urban streams in the Piedmont ecoregion of South Carolina (2025)
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Prediction Of Chlorophyll-a As an Index of Harmful Algal Blooms Using Machine Learning Models (2024)
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Letter from the Special Issue Editor (2024)
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A Review of Machine Learning Models for Harmful Algal Bloom Monitoring in Freshwater Systems (2023)
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Total Microcystin Concentration Variability in Water Samples and Recommended Minimum Volume (20 mL) for Freeze Thaw Cycles (2023)
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Chlorophyll and Phycocyanin Raw Fluorescence May Inform Recreational Lake Managers on Cyanobacterial HABs and Toxins: Lake Fayetteville Case Study (2023)
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Informing Volunteer Water Quality Monitoring Program Design and Watershed Planning: Case Study of StreamSmart Data Analysis in the Upper White River Basin, Arkansas (2023)
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Microcystin Shows Thresholds and Hierarchical Structure With Physicochemical Properties at Lake Fayetteville, Arkansas, May Through September 2020 (2023)
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Magnitude of External Phosphorus Loading Likely Reduces Effectiveness of Aluminum Sulfate Treatments for Management of Sediment Phosphorus Flux (2023)
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Measurable microcystin in Ozark streams was rare during summer 2018 baseflow conditions (2022)
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A Cost-Efficient Method to Remotely Monitor Streamflow in Small-Scale Watersheds (2022)
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Water quality concentration trends and loads identify management needs in the Lake Wister watershed (2022)
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Manipulating Microvolumes of Fluids By Redox-Magnetohydrodynamics for Applications in Chemical Analysis (2021)
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Natural Characteristics and Human Activity Influence Turbidity and Ion Concentrations in Streams (2021)
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Nitrogen form, concentration, and micronutrient availability affect microcystin production in cyanobacterial blooms (2021)
Federal Grants 1 $387,283 total
Collaboration Network
Top Collaborators
- Nitrogen form, concentration, and micronutrient availability affect microcystin production in cyanobacterial blooms
- Chlorophyll and Phycocyanin Raw Fluorescence May Inform Recreational Lake Managers on Cyanobacterial HABs and Toxins: Lake Fayetteville Case Study
- Measurable microcystin in Ozark streams was rare during summer 2018 baseflow conditions
- Total Microcystin Concentration Variability in Water Samples and Recommended Minimum Volume (20 mL) for Freeze Thaw Cycles
- Nitrogen form, concentration, and micronutrient availability affect microcystin production in cyanobacterial blooms
- Chlorophyll and Phycocyanin Raw Fluorescence May Inform Recreational Lake Managers on Cyanobacterial HABs and Toxins: Lake Fayetteville Case Study
- Nitrogen form, concentration, and micronutrient availability affect microcystin production in cyanobacterial blooms
- Chlorophyll and Phycocyanin Raw Fluorescence May Inform Recreational Lake Managers on Cyanobacterial HABs and Toxins: Lake Fayetteville Case Study
- Water quality concentration trends and loads identify management needs in the Lake Wister watershed
- Magnitude of External Phosphorus Loading Likely Reduces Effectiveness of Aluminum Sulfate Treatments for Management of Sediment Phosphorus Flux
- Chlorophyll and Phycocyanin Raw Fluorescence May Inform Recreational Lake Managers on Cyanobacterial HABs and Toxins: Lake Fayetteville Case Study
- Informing Volunteer Water Quality Monitoring Program Design and Watershed Planning: Case Study of StreamSmart Data Analysis in the Upper White River Basin, Arkansas
- Prediction Of Chlorophyll-a As an Index of Harmful Algal Blooms Using Machine Learning Models
- Nutrient dynamics in restored and unrestored urban streams in the Piedmont ecoregion of South Carolina
- Nitrogen form, concentration, and micronutrient availability affect microcystin production in cyanobacterial blooms
- Nitrogen form, concentration, and micronutrient availability affect microcystin production in cyanobacterial blooms
- Nitrogen form, concentration, and micronutrient availability affect microcystin production in cyanobacterial blooms
- Nitrogen form, concentration, and micronutrient availability affect microcystin production in cyanobacterial blooms
- Nitrogen form, concentration, and micronutrient availability affect microcystin production in cyanobacterial blooms
- Nitrogen form, concentration, and micronutrient availability affect microcystin production in cyanobacterial blooms
- Nitrogen form, concentration, and micronutrient availability affect microcystin production in cyanobacterial blooms
- Nitrogen form, concentration, and micronutrient availability affect microcystin production in cyanobacterial blooms
- Nitrogen form, concentration, and micronutrient availability affect microcystin production in cyanobacterial blooms
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