activity
19962016
most citedReply to Comment on "Criterion that Determines the Foldability of Proteins"

202 citations · 360 across the 8 of their papers we have counts for

collaborators

8 papers

cond-mat.stat-mech2016★ 29 cited

Discrete step sizes of molecular motors lead to bimodal non-Gaussian velocity distributions under force

Huong T. Vu, Shaon Chakrabarti, Michael Hinczewski +1

Fluctuations in the physical properties of biological machines are inextricably linked to their functions. Distributions of run-lengths and velocities of processive molecular motor…

q-bio.BM2013★ 50 cited

Design principles governing the motility of myosin V

Michael Hinczewski, Riina Tehver, D. Thirumalai

The molecular motor myosin V exhibits a wide repertoire of pathways during the stepping process, which is intimately connected to its biological function. The best understood of th…

q-bio.MN2012★ 21 cited

Gene Regulation by Riboswitches with and without Negative Feedback Loop

Jong-Chin Lin, D. Thirumalai

Riboswitches, structured elements in the untranslated regions of messenger RNAs, regulate gene expression by binding specific metabolites. We introduce a kinetic network model that…

q-bio.BM2009★ 2 cited

Molecular origin of constant m-values, denatured state collapse, and residue-dependent transition midpoints in globular proteins

Edward P. O'Brien, Bernard R. Brooks, Dave Thirumalai

Experiments show that for many two state folders the free energy of the native state DG_ND([C]) changes linearly as the denaturant concentration [C] is varied. The slope, m = d DG_…

q-bio.BM2004★ 55 cited

Finite size effects on thermal denaturation of globular proteins

Mai Suan Li, D. K. Klimov, D. Thirumalai

Finite size effects on the cooperative thermal denaturation of proteins are considered. A dimensionless measure of cooperativity, Omega, scales as N^zeta, where N is the number of…

cond-mat.soft1997★ 1 cited

Kinetic Partitioning Mechanism as a Unifying Theme in the Folding of Biomolecules

D. Thirumalai, D. K. Klimov, S. A. Woodson

We present a unified framework for folding kinetics of proteins and RNA. The basis for this framework relies on the notion of topological frustration, which gives rise to several c…