Research Areas
Biomedical Subjects
Biography and Research Information
OverviewAI-generated summary
Piyasi Ghosh's research investigates conserved biological mechanisms across different species, with a focus on axon guidance and protein stability. Her work includes studies on the evolutionary conservation of midline axon guidance activity between *Drosophila* and *Tribolium*, examining the Frazzled protein. Additionally, Ghosh has explored the stability of both natural and engineered archaeal heat-shock proteins, investigating their structural properties and pH and temperature dependencies through modeling. Her research also extends to the metabolic and gene expression effects of fever temperatures on activated macrophages and monocytic cells from various animal sources, including mice, chickens, and trout. Ghosh has a history of collaboration with researchers at the University of Arkansas at Fayetteville, including Ruben Michael Ceballos, Timothy A. Evans, Benjamin C. Wadsworth, and L. Cass Terry.
Metrics
- h-index: 1
- Publications: 8
- Citations: 1
Positions
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Graduate Assistant publications 2021–2026University of Arkansas at Fayetteville Institution web page
Selected Publications
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Fever temperature alters metabolic and cytokine activities in activated macrophages in mice, chickens and fish 2266416 (2026)
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Effects of fever temperatures on metabolic changes and gene expression in activated monocytic cells from mouse, chicken and rainbow trout sources (2026)
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Evolutionary conservation of midline axon guidance activity between Drosophila and Tribolium Frazzled (2025)
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Evolutionary conservation of midline axon guidance activity between Drosophila and Tribolium Frazzled (2024)
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Stability Comparisons between Natural versus Engineered Archaeal Heat-Shock Proteins (2021)
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Modeling Group II Chaperonin “Heat Shock” Protein Structure: pH and temperature dependency Piyasi Ghosh1,2 Vivek Govind Kumar1,3 Mahmoud Moradi3 Ruben Michael Ceballos1,2,4 University of Arkansas, Cell and Molecular Biology Program University of Arkansas, Department of Biological Sciences University of Arkansas, Department of Chemistry and Biochemistry Arkansas Center for Space and Planetary Sciences Program (2021)
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Stability Comparisons between Natural versus Engineered Archaeal Heat‐Shock Proteins (2021)
Collaboration Network
Top Collaborators
- Stability Comparisons between Natural versus Engineered Archaeal Heat-Shock Proteins
- Stability Comparisons between Natural versus Engineered Archaeal Heat‐Shock Proteins
- Modeling Group II Chaperonin “Heat Shock” Protein Structure: pH and temperature dependency Piyasi Ghosh1,2 Vivek Govind Kumar1,3 Mahmoud Moradi3 Ruben Michael Ceballos1,2,4 University of Arkansas, Cell and Molecular Biology Program University of Arkansas, Department of Biological Sciences University of Arkansas, Department of Chemistry and Biochemistry Arkansas Center for Space and Planetary Sciences Program
- Stability Comparisons between Natural versus Engineered Archaeal Heat-Shock Proteins
- Stability Comparisons between Natural versus Engineered Archaeal Heat‐Shock Proteins
- Stability Comparisons between Natural versus Engineered Archaeal Heat-Shock Proteins
- Stability Comparisons between Natural versus Engineered Archaeal Heat‐Shock Proteins
- Stability Comparisons between Natural versus Engineered Archaeal Heat-Shock Proteins
- Stability Comparisons between Natural versus Engineered Archaeal Heat‐Shock Proteins
- Stability Comparisons between Natural versus Engineered Archaeal Heat-Shock Proteins
- Stability Comparisons between Natural versus Engineered Archaeal Heat‐Shock Proteins
- Stability Comparisons between Natural versus Engineered Archaeal Heat-Shock Proteins
- Stability Comparisons between Natural versus Engineered Archaeal Heat‐Shock Proteins
- Evolutionary conservation of midline axon guidance activity between Drosophila and Tribolium Frazzled
- Evolutionary conservation of midline axon guidance activity between Drosophila and Tribolium Frazzled
- Evolutionary conservation of midline axon guidance activity between Drosophila and Tribolium Frazzled
- Evolutionary conservation of midline axon guidance activity between Drosophila and Tribolium Frazzled
- Effects of fever temperatures on metabolic changes and gene expression in activated monocytic cells from mouse, chicken and rainbow trout sources
- Fever temperature alters metabolic and cytokine activities in activated macrophages in mice, chickens and fish 2266416
- Effects of fever temperatures on metabolic changes and gene expression in activated monocytic cells from mouse, chicken and rainbow trout sources
- Fever temperature alters metabolic and cytokine activities in activated macrophages in mice, chickens and fish 2266416
- Effects of fever temperatures on metabolic changes and gene expression in activated monocytic cells from mouse, chicken and rainbow trout sources
- Fever temperature alters metabolic and cytokine activities in activated macrophages in mice, chickens and fish 2266416
- Modeling Group II Chaperonin “Heat Shock” Protein Structure: pH and temperature dependency Piyasi Ghosh1,2 Vivek Govind Kumar1,3 Mahmoud Moradi3 Ruben Michael Ceballos1,2,4 University of Arkansas, Cell and Molecular Biology Program University of Arkansas, Department of Biological Sciences University of Arkansas, Department of Chemistry and Biochemistry Arkansas Center for Space and Planetary Sciences Program
- Modeling Group II Chaperonin “Heat Shock” Protein Structure: pH and temperature dependency Piyasi Ghosh1,2 Vivek Govind Kumar1,3 Mahmoud Moradi3 Ruben Michael Ceballos1,2,4 University of Arkansas, Cell and Molecular Biology Program University of Arkansas, Department of Biological Sciences University of Arkansas, Department of Chemistry and Biochemistry Arkansas Center for Space and Planetary Sciences Program
- Stability Comparisons between Natural versus Engineered Archaeal Heat-Shock Proteins
- Evolutionary conservation of midline axon guidance activity between Drosophila and Tribolium Frazzled
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