Biography and Research Information
OverviewAI-generated summary
Piyasi Ghosh's research investigates the structural and functional properties of proteins, with a particular focus on heat-shock proteins and chaperonins. Her work explores the stability of natural and engineered archaeal heat-shock proteins, examining how pH and temperature influence their structure. Ghosh has also contributed to the study of evolutionary conservation in biological systems, specifically investigating the midline axon guidance activity of the Frazzled protein in different species, including *Drosophila* and *Tribolium*. Her collaborations include extensive work with Ruben Michael Ceballos, Timothy A. Evans, Benjamin C. Wadsworth, and L. Cass Terry at the University of Arkansas at Fayetteville, contributing to multiple shared publications.
Metrics
- h-index: 1
- Publications: 6
- Citations: 1
Selected Publications
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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 <i>Drosophila</i> and <i>Tribolium</i> 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 <i>Drosophila</i> and <i>Tribolium</i> Frazzled
- Evolutionary conservation of midline axon guidance activity between Drosophila and Tribolium Frazzled
- Evolutionary conservation of midline axon guidance activity between <i>Drosophila</i> and <i>Tribolium</i> Frazzled
- Evolutionary conservation of midline axon guidance activity between Drosophila and Tribolium Frazzled
- 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 <i>Drosophila</i> and <i>Tribolium</i> Frazzled
- Evolutionary conservation of midline axon guidance activity between Drosophila and Tribolium Frazzled
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