Reiofeli A. Salas-Perez Data-verified
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Biography and Research Information
OverviewAI-generated summary
Reiofeli A. Salas-Perez's research focuses on understanding and managing herbicide resistance in agricultural weed populations. Her work investigates the biochemical and genetic mechanisms underlying resistance to various herbicide classes, including PPO inhibitors and ACCase inhibitors. Recent publications examine resistance in economically significant weeds such as Palmer amaranth ( *Amaranthus palmeri* ) and Lolium multiflorum. Salas-Perez also studies factors that influence herbicide efficacy, such as the role of ammonium sulfate in enhancing glyphosate activity under water stress conditions. Her scholarship metrics include an h-index of 9, 15 total publications, and 442 total citations. She has collaborated on multiple publications with Nilda R. Burgos and Gulab Rangani at the University of Arkansas at Fayetteville.
Metrics
- h-index: 9
- Publications: 15
- Citations: 456
Selected Publications
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Resistance to Acetyl Coenzyme A Carboxylase (ACCase) Inhibitor in Lolium multiflorum: Effect of Multiple Target-Site Mutations (2024)
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Assessment of Efficacy and Mechanism of Resistance to Soil-Applied PPO Inhibitors in Amaranthus palmeri (2023)
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Mechanism of Resistance to S-metolachlor in Palmer amaranth (2021)
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Ammonium sulfate improves the efficacy of glyphosate on South African lovegrass (<i>Eragrostis plana</i>) under water stress (2021)
Collaboration Network
Top Collaborators
- Mechanism of Resistance to S-metolachlor in Palmer amaranth
- Ammonium sulfate improves the efficacy of glyphosate on South African lovegrass (<i>Eragrostis plana</i>) under water stress
- Assessment of Efficacy and Mechanism of Resistance to Soil-Applied PPO Inhibitors in Amaranthus palmeri
- Resistance to Acetyl Coenzyme A Carboxylase (ACCase) Inhibitor in Lolium multiflorum: Effect of Multiple Target-Site Mutations
- Mechanism of Resistance to S-metolachlor in Palmer amaranth
- Assessment of Efficacy and Mechanism of Resistance to Soil-Applied PPO Inhibitors in Amaranthus palmeri
- Resistance to Acetyl Coenzyme A Carboxylase (ACCase) Inhibitor in Lolium multiflorum: Effect of Multiple Target-Site Mutations
- Ammonium sulfate improves the efficacy of glyphosate on South African lovegrass (<i>Eragrostis plana</i>) under water stress
- Resistance to Acetyl Coenzyme A Carboxylase (ACCase) Inhibitor in Lolium multiflorum: Effect of Multiple Target-Site Mutations
- Assessment of Efficacy and Mechanism of Resistance to Soil-Applied PPO Inhibitors in Amaranthus palmeri
- Resistance to Acetyl Coenzyme A Carboxylase (ACCase) Inhibitor in Lolium multiflorum: Effect of Multiple Target-Site Mutations
- Ammonium sulfate improves the efficacy of glyphosate on South African lovegrass (<i>Eragrostis plana</i>) under water stress
- Ammonium sulfate improves the efficacy of glyphosate on South African lovegrass (<i>Eragrostis plana</i>) under water stress
- Ammonium sulfate improves the efficacy of glyphosate on South African lovegrass (<i>Eragrostis plana</i>) under water stress
- Ammonium sulfate improves the efficacy of glyphosate on South African lovegrass (<i>Eragrostis plana</i>) under water stress
- Mechanism of Resistance to S-metolachlor in Palmer amaranth
- Mechanism of Resistance to S-metolachlor in Palmer amaranth
- Assessment of Efficacy and Mechanism of Resistance to Soil-Applied PPO Inhibitors in Amaranthus palmeri
- Assessment of Efficacy and Mechanism of Resistance to Soil-Applied PPO Inhibitors in Amaranthus palmeri
- Assessment of Efficacy and Mechanism of Resistance to Soil-Applied PPO Inhibitors in Amaranthus palmeri
- Resistance to Acetyl Coenzyme A Carboxylase (ACCase) Inhibitor in Lolium multiflorum: Effect of Multiple Target-Site Mutations
- Resistance to Acetyl Coenzyme A Carboxylase (ACCase) Inhibitor in Lolium multiflorum: Effect of Multiple Target-Site Mutations
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