Jeevapani J. Hettige
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Also affiliated: Stowers Institute for Medical Research (2024–2026); University of Iowa (2012–2016); Los Alamos National Laboratory (2019–2022); Pacific Northwest National Laboratory (2021–2024); University of Arkansas System (2018); Indian Institute of Technology Delhi (2016)
Research Areas
Biomedical Subjects
Biography and Research Information
OverviewAI-generated summary
Jeevapani J. Hettige's research focuses on computational studies of molecular systems, particularly the behavior of ionic liquids and their interactions with biological molecules. His work has investigated the relationship between the structure of ionic liquids, including variations in cation alkyl groups and anion properties, and their dynamic characteristics. Hettige has also explored phenomena such as bicontinuity and ordering in different types of ionic liquids. More recently, his research has extended to applying machine learning techniques to model complex biological processes, such as the lipid-dependent dynamics of RAS signaling proteins. His publications also cover fundamental aspects of ionic liquid structure, including SAXS analysis to understand ordering and the role of anions as structural reporters. Hettige's scholarly contributions are reflected in an h-index of 17, with 44 total publications and over 1,600 citations.
Metrics
- h-index: 17
- Publications: 45
- Citations: 1,609
Selected Publications
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Charge reversal in the heparin-binding pocket enhances the stability and activity of the human FGF1 (2026)
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Lipid-dependent conformational dynamics of bacterial ATP-binding cassette transporter Sav1866 (2024)
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An investigation of the YidC-mediated membrane insertion of Pf3 coat protein using molecular dynamics simulations (2022)
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An Investigation of the YidC-Mediated Membrane Insertion of Pf3 Coat Protein Using Molecular Dynamics Simulations (2022)
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An investigation of the YidC-mediated membrane insertion of Pf3 coat protein using molecular dynamics simulations (2022)
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An Investigation of the YidC-Mediated Membrane Insertion of a Pf3 Coat Protein Using MD Simulations (2020)
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The Role of a Crystallographically Unresolved Cytoplasmic Loop in Stabilizing the Bacterial Membrane Insertase YidC2 (2019)
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The Role of a Crystallographically Unresolved Cytoplasmic Loop in Stabilizing the Bacterial Membrane Insertase YidC2 (2019)
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Lipid-Dependent Alternating Access Mechanism of a Bacterial Multidrug ABC Exporter (2019)
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Lipid-Dependent Alternating Access Mechanism in ABC Exporters Revealed using Microsecond-Level Molecular Dynamics Simulations (2018)
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Lipid-Dependent Alternating Access Mechanism of a Bacterial Multidrug ABC Transporter: A Molecular Dynamics Study (2018)
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Microsecond-Level Simulations Reveal Membrane Protein Insertion Mechanism of Insertase YidC (2018)
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All-Atom Molecular Dynamics Simulation of Stealth Liposomes (2017)
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Couplings between Local and Global Conformational Changes in Proton-Coupled Oligopeptide Transporters (2017)
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What Can and Cannot Be Learned from Molecular Dynamics Simulations of Bacterial Proton-Coupled Oligopeptide Transporter GkPOT? (2016)
Collaboration Network
Top Collaborators
- Lipid-Dependent Alternating Access Mechanism of a Bacterial Multidrug ABC Exporter
- What Can and Cannot Be Learned from Molecular Dynamics Simulations of Bacterial Proton-Coupled Oligopeptide Transporter GkPOT?
- The Role of a Crystallographically Unresolved Cytoplasmic Loop in Stabilizing the Bacterial Membrane Insertase YidC2
- An investigation of the YidC-mediated membrane insertion of Pf3 coat protein using molecular dynamics simulations
- An Investigation of the YidC-Mediated Membrane Insertion of Pf3 Coat Protein Using Molecular Dynamics Simulations
Showing 5 of 15 shared publications
- Lipid-Dependent Alternating Access Mechanism of a Bacterial Multidrug ABC Exporter
- What Can and Cannot Be Learned from Molecular Dynamics Simulations of Bacterial Proton-Coupled Oligopeptide Transporter GkPOT?
- The Role of a Crystallographically Unresolved Cytoplasmic Loop in Stabilizing the Bacterial Membrane Insertase YidC2
- An investigation of the YidC-mediated membrane insertion of Pf3 coat protein using molecular dynamics simulations
- An Investigation of the YidC-Mediated Membrane Insertion of Pf3 Coat Protein Using Molecular Dynamics Simulations
Showing 5 of 9 shared publications
- The Role of a Crystallographically Unresolved Cytoplasmic Loop in Stabilizing the Bacterial Membrane Insertase YidC2
- All-Atom Molecular Dynamics Simulation of Stealth Liposomes
- The Role of a Crystallographically Unresolved Cytoplasmic Loop in Stabilizing the Bacterial Membrane Insertase YidC2
- Lipid-Dependent Alternating Access Mechanism of a Bacterial Multidrug ABC Transporter: A Molecular Dynamics Study
- An investigation of the YidC-mediated membrane insertion of Pf3 coat protein using molecular dynamics simulations
- An Investigation of the YidC-Mediated Membrane Insertion of Pf3 Coat Protein Using Molecular Dynamics Simulations
- An Investigation of the YidC-Mediated Membrane Insertion of a Pf3 Coat Protein Using MD Simulations
- An investigation of the YidC-mediated membrane insertion of Pf3 coat protein using molecular dynamics simulations
- The Role of a Crystallographically Unresolved Cytoplasmic Loop in Stabilizing the Bacterial Membrane Insertase YidC2
- The Role of a Crystallographically Unresolved Cytoplasmic Loop in Stabilizing the Bacterial Membrane Insertase YidC2
- Microsecond-Level Simulations Reveal Membrane Protein Insertion Mechanism of Insertase YidC
- The Role of a Crystallographically Unresolved Cytoplasmic Loop in Stabilizing the Bacterial Membrane Insertase YidC2
- The Role of a Crystallographically Unresolved Cytoplasmic Loop in Stabilizing the Bacterial Membrane Insertase YidC2
- Lipid-dependent conformational dynamics of bacterial ATP-binding cassette transporter Sav1866
- Charge reversal in the heparin-binding pocket enhances the stability and activity of the human FGF1
- Charge reversal in the heparin-binding pocket enhances the stability and activity of the human FGF1
- Charge reversal in the heparin-binding pocket enhances the stability and activity of the human FGF1
- Charge reversal in the heparin-binding pocket enhances the stability and activity of the human FGF1
- Charge reversal in the heparin-binding pocket enhances the stability and activity of the human FGF1
- Charge reversal in the heparin-binding pocket enhances the stability and activity of the human FGF1
- Charge reversal in the heparin-binding pocket enhances the stability and activity of the human FGF1
- Charge reversal in the heparin-binding pocket enhances the stability and activity of the human FGF1
- Charge reversal in the heparin-binding pocket enhances the stability and activity of the human FGF1
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