Kyle A. Hoegenauer Data-verified
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Researcher
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Biography and Research Information
OverviewAI-generated summary
Kyle A. Hoegenauer's research focuses on understanding plant physiology and crop management, particularly in soybeans and winter cover crops. His work investigates the impact of environmental stressors and nutrient availability on crop vigor, biomass accumulation, and nitrogen dynamics. Recent publications explore the relationship between potassium concentrations in soybean leaves and the development of effective sampling protocols, as well as the interaction of drought stress and potassium deficiency on soybean health. He also studies the use of growing degree days to model the dynamics of winter cover crops and examines how post-season tissue nitrogen concentrations can predict in-season nitrogen management adequacy. Hoegenauer collaborates with researchers at the University of Arkansas at Fayetteville, including Jeremy Ross, Matthew B. Bertucci, Mary C. Savin, and Trenton L. Roberts.
Metrics
- h-index: 2
- Publications: 9
- Citations: 27
Selected Publications
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Development of calibrated in‐season corrective potassium applications for irrigated soybean (2026)
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Use of growing degree days to model the dynamics of aboveground biomass and nitrogen accumulation of winter cover crops (2025)
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Interaction of drought stress and potassium deficiency on soybean vigor and leaf temperature (2024)
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Using post‐season tissue nitrogen concentrations to predict adequacy of in‐season nitrogen management (2023)
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Mapping variability of soybean leaf potassium concentrations to develop a sampling protocol (2023)
Collaboration Network
Top Collaborators
- Mapping variability of soybean leaf potassium concentrations to develop a sampling protocol
- Using post‐season tissue nitrogen concentrations to predict adequacy of in‐season nitrogen management
- Interaction of drought stress and potassium deficiency on soybean vigor and leaf temperature
- Use of growing degree days to model the dynamics of aboveground biomass and nitrogen accumulation of winter cover crops
- Mapping variability of soybean leaf potassium concentrations to develop a sampling protocol
- Using post‐season tissue nitrogen concentrations to predict adequacy of in‐season nitrogen management
- Interaction of drought stress and potassium deficiency on soybean vigor and leaf temperature
- Interaction of drought stress and potassium deficiency on soybean vigor and leaf temperature
- Use of growing degree days to model the dynamics of aboveground biomass and nitrogen accumulation of winter cover crops
- Interaction of drought stress and potassium deficiency on soybean vigor and leaf temperature
- Use of growing degree days to model the dynamics of aboveground biomass and nitrogen accumulation of winter cover crops
- Mapping variability of soybean leaf potassium concentrations to develop a sampling protocol
- Mapping variability of soybean leaf potassium concentrations to develop a sampling protocol
- Mapping variability of soybean leaf potassium concentrations to develop a sampling protocol
- Using post‐season tissue nitrogen concentrations to predict adequacy of in‐season nitrogen management
- Using post‐season tissue nitrogen concentrations to predict adequacy of in‐season nitrogen management
- Using post‐season tissue nitrogen concentrations to predict adequacy of in‐season nitrogen management
- Interaction of drought stress and potassium deficiency on soybean vigor and leaf temperature
- Interaction of drought stress and potassium deficiency on soybean vigor and leaf temperature
- Use of growing degree days to model the dynamics of aboveground biomass and nitrogen accumulation of winter cover crops
- Use of growing degree days to model the dynamics of aboveground biomass and nitrogen accumulation of winter cover crops
- Use of growing degree days to model the dynamics of aboveground biomass and nitrogen accumulation of winter cover crops
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