Cammy Willett Data-verified
Affiliation confirmed via AI analysis of OpenAlex, ORCID, and web sources.
Researcher
faculty
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Biography and Research Information
OverviewAI-generated summary
Cammy Willett's research focuses on the environmental persistence and degradation of herbicides, particularly atrazine and S-metolachlor. Her work investigates the factors influencing herbicide dissipation in soil, including the impact of within-season and inter-annual herbicide application. Willett also explores the role of plant extracts and microbial communities in the biodegradation of these agricultural chemicals. Her publications address the development of predictive models for herbicide dissipation endpoints and the estimation of herbicide-treated areas in watersheds based on stream loads. Willett has authored 31 publications, with an h-index of 10 and 377 citations. She has collaborated with researchers including Matthew B. Bertucci, Nilda R. Burgos, Mary C. Savin, and Erin M. Grantz, all from the University of Arkansas at Fayetteville, with multiple shared publications.
Metrics
- h-index: 10
- Publications: 31
- Citations: 380
Selected Publications
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Biphasic models improved <i>S</i>‐metolachlor dissipation endpoint predictions (2024)
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Evaluating phytochemical and microbial contributions to atrazine degradation (2022)
Collaboration Network
Top Collaborators
- S-metolachlor persistence in soil as influenced by within-season and inter-annual herbicide use
- Resistance of Palmer amaranth (<i>Amaranthus palmeri</i>) to <i>S</i>-metolachlor in the midsouthern United States
- S -Metolachlor Persistence in Soil as Influenced by Within-Season and Inter-Annual Herbicide Use
- Biphasic models improved <i>S</i>‐metolachlor dissipation endpoint predictions
- S-metolachlor persistence in soil as influenced by within-season and inter-annual herbicide use
- Resistance of Palmer amaranth (<i>Amaranthus palmeri</i>) to <i>S</i>-metolachlor in the midsouthern United States
- S -Metolachlor Persistence in Soil as Influenced by Within-Season and Inter-Annual Herbicide Use
- Biphasic models improved <i>S</i>‐metolachlor dissipation endpoint predictions
- S-metolachlor persistence in soil as influenced by within-season and inter-annual herbicide use
- Resistance of Palmer amaranth (<i>Amaranthus palmeri</i>) to <i>S</i>-metolachlor in the midsouthern United States
- S -Metolachlor Persistence in Soil as Influenced by Within-Season and Inter-Annual Herbicide Use
- Biphasic models improved <i>S</i>‐metolachlor dissipation endpoint predictions
- S-metolachlor persistence in soil as influenced by within-season and inter-annual herbicide use
- Resistance of Palmer amaranth (<i>Amaranthus palmeri</i>) to <i>S</i>-metolachlor in the midsouthern United States
- S -Metolachlor Persistence in Soil as Influenced by Within-Season and Inter-Annual Herbicide Use
- Biphasic models improved <i>S</i>‐metolachlor dissipation endpoint predictions
- S-metolachlor persistence in soil as influenced by within-season and inter-annual herbicide use
- Resistance of Palmer amaranth (<i>Amaranthus palmeri</i>) to <i>S</i>-metolachlor in the midsouthern United States
- S -Metolachlor Persistence in Soil as Influenced by Within-Season and Inter-Annual Herbicide Use
- Biphasic models improved <i>S</i>‐metolachlor dissipation endpoint predictions
- S-metolachlor persistence in soil as influenced by within-season and inter-annual herbicide use
- S -Metolachlor Persistence in Soil as Influenced by Within-Season and Inter-Annual Herbicide Use
- Biphasic models improved <i>S</i>‐metolachlor dissipation endpoint predictions
- Evaluating phytochemical and microbial contributions to atrazine degradation
- Estimating simazine‐treated area in watersheds based on annual stream loads
- Resistance of Palmer amaranth (<i>Amaranthus palmeri</i>) to <i>S</i>-metolachlor in the midsouthern United States
- Resistance of Palmer amaranth (<i>Amaranthus palmeri</i>) to <i>S</i>-metolachlor in the midsouthern United States
- Resistance of Palmer amaranth (<i>Amaranthus palmeri</i>) to <i>S</i>-metolachlor in the midsouthern United States
- Evaluating phytochemical and microbial contributions to atrazine degradation
- Evaluating phytochemical and microbial contributions to atrazine degradation
- Evaluating phytochemical and microbial contributions to atrazine degradation
- Evaluating phytochemical and microbial contributions to atrazine degradation
- Biphasic models improved <i>S</i>‐metolachlor dissipation endpoint predictions
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