CV
Computational biophysicist studying protein folding, misfolding, and entanglement mechanisms with molecular simulation.
Basics
| Name | Quyen V. Vu |
| Label | Postdoctoral Scholar |
| qzv5006@psu.edu; vuqv.phys@gmail.com | |
| Url | https://vuqv.github.io |
| Summary | Computational biophysicist studying protein folding, misfolding, and topological entanglement using molecular dynamics simulations and statistical-mechanical models. |
Work
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2024.04 - present University Park, Pennsylvania
Postdoctoral Scholar
Department of Chemistry, Penn State University
Investigate molecular mechanisms of protein folding, misfolding, and non-covalent lasso entanglement using atomistic and coarse-grained molecular simulations.
- Computational biophysics
- Molecular dynamics simulations
- Protein folding and misfolding
- Protein topology and entanglement
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2022.01 - 2023.01 Warsaw, Poland
Physicist
Institute of Physics, Polish Academy of Sciences, Warsaw, Poland
Developed and applied coarse-grained and all-atom simulation models to study co-translational protein folding on the ribosome.
- Coarse-grained simulations
- All-atom simulations
- Co-translational protein folding
- Ribosome-nascent chain interactions
Volunteer
-
Reviewer
- Communications Chemistry
- Communications Physics
- Nature Communications
- Journal of the American Chemical Society
- Journal of Physical Chemistry B
Education
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2018.10 - 2023.12 Warsaw, Poland
Doctor of Philosophy
Institute of Physics, Polish Academy of Sciences, Warsaw, Poland
Theoretical Physics, Computational Biophysics
- Computational biophysics
- Molecular dynamics simulations
- Protein folding
- Protein misfolding
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2015.09 - 2017.05 Hanoi, Vietnam
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2011.09 - 2015.05 Hanoi, Vietnam
Awards
- 2023.12.23
The Annual Director's Awards for Best PhD Thesis 2023
Institute of Physics, Polish Academy of Sciences, Warsaw, Poland
The Annual Director's Awards for Best PhD Thesis 2023
- 2021
Creative Youth
Vietnam Association of Science and Technology in Poland
Award for Young Vietnamese Scientist in Poland
- 2015
Student - Scientific Researching
Hanoi University of Science, Vietnam National University
Student - Scientific Researching. Second prize
- 2015
PetroVietnam Scholarship
Hanoi University of Science, Vietnam National University
Scholarship for outstanding students
Skills
| Computational biophysics | |
| Statistical mechanics | |
| Molecular dynamics simulations | |
| Protein folding and misfolding | |
| Coarse-grained and all-atom simulations | |
| Co-translational protein folding | |
| Ribosome-nascent chain interactions | |
| Protein topology and entanglement |
| Tools and Programming Languages | |
| GROMACS | |
| OpenMM | |
| Python | |
| Julia | |
| C/C++ | |
| MDAnalysis |
Languages
| Vietnamese | |
| Native speaker |
| English | |
| Fluent |
Interests
| Computational biophysics | |||||||
| Molecular dynamics simulations | |||||||
| Protein folding | |||||||
| Protein misfolding | |||||||
| Coarse-grained simulations | |||||||
| All-atom simulations | |||||||
| Statistical mechanics | |||||||
| Molecular and structural biology | |||||
| Ribosome | |||||
| Co-translational protein folding | |||||
| Age-associated structural change | |||||
| Non-covalent lasso entanglement | |||||
References
| Prof. Mai Suan Li | |
| Prof. Mai Suan Li is a professor of computational biophysics at the Institute of Physics, Polish Academy of Sciences, Warsaw, Poland, with expertise in molecular simulation and biomolecular physics. |
| Prof. Edward P. O'Brien | |
| Prof. Edward P. O'Brien is a professor of chemistry at Penn State University, with expertise in computational biophysics, protein folding, and ribosome-associated molecular processes. |
Projects
- 2025.01 - 2025.12
Protein entanglement, misfolding, and aging
Investigate whether native non-covalent lasso entanglements create structural liabilities that promote misfolding and contribute to age-associated proteome remodeling in yeast.
- Entanglement-mediated misfolding
- Age-associated structural change
- Non-covalent lasso entanglement
- 2024.04 - 2026.05
Molecular mechanisms of entanglement-mediated protein misfolding and disease
Use molecular simulations to characterize how native topological entanglements alter folding pathways, stabilize misfolded states, and shape disease-relevant protein behavior.
- Entanglement-mediated misfolding
- Disease-associated proteins
- Non-covalent lasso entanglement
- Co-translational protein folding
- 2020.01 - 2021.05
Hydrophobic effect in the ribosome vestibule
Quantified how water ordering in the ribosome vestibule weakens hydrophobic driving forces that can influence nascent-chain folding.
- Hydrophobic effect
- Ribosome vestibule
- Co-translational protein folding
- Water structure
- 2018.12 - 2020.05
Electrostatic interactions govern extreme nascent protein ejection times from ribosomes and can delay ribosome recycling in E. coli
Studied how electrostatic interactions modulate nascent-protein ejection from the ribosome and can delay ribosome recycling in E. coli.
- Electrostatic interactions
- Nascent-protein ejection
- Ribosome recycling
Presentations
- 2020.12.23Warsaw, Poland
Protein folding on the ribosome Oral
Event: Theoretical Physics Seminar at Institute of Physics, Polish Academy of Sciences
- 2021.11.21Warsaw, Poland
The driving force for co-translational protein folding is weaker in the ribosome vestibule due to greater water ordering Special oral
Event: The sixth Workshop of Vietnamese Students in Poland
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2025.05.29 2025.05.31 Wayne State University, Detroit, MI, United StatesA new class of protein misfolding revealed by all-atom simulations and supported by experiments Poster
Event: 55th Midwest Theoretical Chemistry Conference (MWTCC55)
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2026.01.03 2026.01.04 Pomona, California, United StatesNative non-covalent lasso entanglement promotes misfolding and contributes to age-related structural change in the Saccharomyces cerevisiae proteome Oral
Event: Gordon Research Conference on Protein Folding Dynamics
Oral presentation on entanglement-mediated misfolding and age-associated structural change in the Saccharomyces cerevisiae proteome.
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2026.01.04 2026.01.09 Pomona, California, United StatesNative non-covalent lasso entanglement promotes misfolding and contributes to age-related structural change in the Saccharomyces cerevisiae proteome Poster
Event: Gordon Research Conference on Protein Folding Dynamics
Poster presentation on entanglement-mediated misfolding and age-associated structural change in the Saccharomyces cerevisiae proteome.