Kinematics of the Lever Arm Swing in Myosin VI
This study uses a coarse-grained model to analyze the power stroke mechanism of myosin VI, revealing that the lever arm rotation is largely uncoupled from the motor domain.
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Primary ORCID profile (0000-0003-1801-5924 · 22 papers)Unclaimed ORCID profile · follow to get notified of new preprints
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7 papers
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This study uses a coarse-grained model to analyze the power stroke mechanism of myosin VI, revealing that the lever arm rotation is largely uncoupled from the motor domain.
Changbong Hyeon, Dave Thirumalai
This study uses Gaussian network models to analyze RNA unfolding under force, showing qualitative agreement with experimental data but limitations in capturing complex features.
Naoto Hori, Natalia A. Denesyuk, Dave Thirumalai
This study uses simulations to analyze how salt and force affect the structural transitions of an RNA pseudoknot, revealing how these factors influence frameshifting efficiency.
Michael Hinczewski, Dave Thirumalai
The paper applies a noise filtering formalism from communications systems to analyze noise control in gene regulatory networks with negative feedback, showing optimal noise reduction in Hill-like circuits.
Huong Vu, Shaon Chakrabarti, Michael Hinczewski, Dave Thirumalai
The paper derives a kinetic model to predict velocity and run-length distributions of molecular motors under force, showing bimodal non-Gaussian velocity distributions due to discrete step sizes.
Dave Thirumalai, Natasha A. Denesyuk
This study shows that Mg2+ ions transiently stabilize structural elements of the group I ribozyme but are insufficient for complete folding, which requires higher concentrations and specific metal ligand interactions.
Zhenxing Liu, Govardhan Reddy, Dave Thirumalai
This paper uses the Molecular Transfer Model to simulate urea-dependent folding of the PDZ2 domain, showing the presence of an intermediate state and revealing folding pathways.