Mercede Furr
This is a likely match — the affiliation was inferred from OpenAlex, ORCID, and web sources but has not been fully confirmed. Treat with appropriate caution.
Researcher
Also affiliated: Paine College (1987)
Faculty Researcher
Research Areas
Biomedical Subjects
Links
Biography and Research Information
OverviewAI-generated summary
Mercede Furr's research investigates the structural dynamics and stability of proteins, with a particular focus on intrinsically disordered regions and archaeal heat-shock proteins. Recent publications explore the transient secondary structure within the C-terminal region of the Albino3 insertase and compare the stability of natural versus engineered archaeal heat-shock proteins and chaperonins. Furr also studies the impact of human herpesvirus 6 (HHV-6) infection on differentiated human neural stem cells, examining differential effects between HHV-6A and HHV-6B strains. This work involves collaborations with researchers at the University of Arkansas at Fayetteville, including Thallapuranam Krishnaswamy Suresh Kumar, Colin D. Heyes, Vivek Govind Kumar, and Ruben Michael Ceballos. Furr's publication record includes 17 articles, with an h-index of 3 and 32 total citations, and the researcher has been active since at least 2021.
Metrics
- h-index: 3
- Publications: 17
- Citations: 34
Selected Publications
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Structural Stability Comparisons Between Natural and Engineered Group II Chaperonins: Are Crenarchaeal “Heat Shock” Proteins Also “pH Shock” Resistant? (2024)
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cpSRP43 Is Both Highly Flexible and Stable: Structural Insights Using a Combined Experimental and Computational Approach (2023)
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Differential Impacts of HHV-6A versus HHV-6B Infection in Differentiated Human Neural Stem Cells (2022)
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Transient local secondary structure in the intrinsically disordered C‐term of the Albino3 insertase (2022)
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cpSRP43 is both highly flexible and stable: Structural insights using a combined experimental and computational approach (2022)
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Transient local secondary structure in the intrinsically disordered C-term of the Albino3 insertase (2021)
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Stability Comparisons between Natural versus Engineered Archaeal Heat-Shock Proteins (2021)
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Stability Comparisons between Natural versus Engineered Archaeal Heat‐Shock Proteins (2021)
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Integrating Molecular Dynamics and smFRET Data to Study the Conformational Ensemble of the C-Terminus of Albino3 Protein (2021)
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Differential susceptibility of neuronal neurotransmitter phenotypes to HHV6 infection (2021)
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Stability Comparisons between Natural Archaeal and Engineered Archaeal‐Bacterial Heat‐Shock Protein Subunits (α, β, and β‐cohesin) and their Oligomeric Complexes (2020)
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Chloroplast SRP43 subunit Prevents Aggregation of Proteins (2019)
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Three-Dimensional Structure of the 54-Kda Subunit of the Chloroplast Signal Recognition Particle using Molecular Modeling (2014)
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Copper binding affinity of the C2B domain of synaptotagmin-1 and its potential role in the nonclassical secretion of acidic fibroblast growth factor (2014)
Collaboration Network
Top Collaborators
- Transient local secondary structure in the intrinsically disordered C-term of the Albino3 insertase
- cpSRP43 Is Both Highly Flexible and Stable: Structural Insights Using a Combined Experimental and Computational Approach
- Stability Comparisons between Natural versus Engineered Archaeal Heat-Shock Proteins
- Stability Comparisons between Natural versus Engineered Archaeal Heat‐Shock Proteins
- cpSRP43 is both highly flexible and stable: Structural insights using a combined experimental and computational approach
Showing 5 of 6 shared publications
- Transient local secondary structure in the intrinsically disordered C-term of the Albino3 insertase
- cpSRP43 Is Both Highly Flexible and Stable: Structural Insights Using a Combined Experimental and Computational Approach
- Integrating Molecular Dynamics and smFRET Data to Study the Conformational Ensemble of the C-Terminus of Albino3 Protein
- cpSRP43 is both highly flexible and stable: Structural insights using a combined experimental and computational approach
- Structural Stability Comparisons Between Natural and Engineered Group II Chaperonins: Are Crenarchaeal “Heat Shock” Proteins Also “pH Shock” Resistant?
- Transient local secondary structure in the intrinsically disordered C-term of the Albino3 insertase
- cpSRP43 Is Both Highly Flexible and Stable: Structural Insights Using a Combined Experimental and Computational Approach
- Integrating Molecular Dynamics and smFRET Data to Study the Conformational Ensemble of the C-Terminus of Albino3 Protein
- cpSRP43 is both highly flexible and stable: Structural insights using a combined experimental and computational approach
- Transient local secondary structure in the intrinsically disordered C-term of the Albino3 insertase
- cpSRP43 Is Both Highly Flexible and Stable: Structural Insights Using a Combined Experimental and Computational Approach
- Integrating Molecular Dynamics and smFRET Data to Study the Conformational Ensemble of the C-Terminus of Albino3 Protein
- cpSRP43 is both highly flexible and stable: Structural insights using a combined experimental and computational approach
- Differential Impacts of HHV-6A versus HHV-6B Infection in Differentiated Human Neural Stem Cells
- Stability Comparisons between Natural versus Engineered Archaeal Heat-Shock Proteins
- Stability Comparisons between Natural versus Engineered Archaeal Heat‐Shock Proteins
- Structural Stability Comparisons Between Natural and Engineered Group II Chaperonins: Are Crenarchaeal “Heat Shock” Proteins Also “pH Shock” Resistant?
- Transient local secondary structure in the intrinsically disordered C-term of the Albino3 insertase
- Transient local secondary structure in the intrinsically disordered C‐term of the Albino3 insertase
- Integrating Molecular Dynamics and smFRET Data to Study the Conformational Ensemble of the C-Terminus of Albino3 Protein
- Stability Comparisons between Natural versus Engineered Archaeal Heat-Shock Proteins
- Stability Comparisons between Natural versus Engineered Archaeal Heat‐Shock Proteins
- Structural Stability Comparisons Between Natural and Engineered Group II Chaperonins: Are Crenarchaeal “Heat Shock” Proteins Also “pH Shock” Resistant?
- Stability Comparisons between Natural versus Engineered Archaeal Heat-Shock Proteins
- Stability Comparisons between Natural versus Engineered Archaeal Heat‐Shock Proteins
- Structural Stability Comparisons Between Natural and Engineered Group II Chaperonins: Are Crenarchaeal “Heat Shock” Proteins Also “pH Shock” Resistant?
- Stability Comparisons between Natural versus Engineered Archaeal Heat-Shock Proteins
- Stability Comparisons between Natural versus Engineered Archaeal Heat‐Shock Proteins
- Structural Stability Comparisons Between Natural and Engineered Group II Chaperonins: Are Crenarchaeal “Heat Shock” Proteins Also “pH Shock” Resistant?
- Differential Impacts of HHV-6A versus HHV-6B Infection in Differentiated Human Neural Stem Cells
- Differential susceptibility of neuronal neurotransmitter phenotypes to HHV6 infection
- Transient local secondary structure in the intrinsically disordered C-term of the Albino3 insertase
- Integrating Molecular Dynamics and smFRET Data to Study the Conformational Ensemble of the C-Terminus of Albino3 Protein
- 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
- Structural Stability Comparisons Between Natural and Engineered Group II Chaperonins: Are Crenarchaeal “Heat Shock” Proteins Also “pH Shock” Resistant?
- Transient local secondary structure in the intrinsically disordered C-term of the Albino3 insertase
- Transient local secondary structure in the intrinsically disordered C‐term of the Albino3 insertase
- Transient local secondary structure in the intrinsically disordered C-term of the Albino3 insertase
- Transient local secondary structure in the intrinsically disordered C‐term of the Albino3 insertase
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