activity
20142016
most citedForce-dependent switch in protein unfolding pathways and transition state movements

68 citations · 182 across the 6 of their papers we have counts for

collaborators

6 papers

q-bio.BM2016

Protein Collapse is Encoded in the Folded State Architecture

Himadri S. Samanta, Pavel I. Zhuravlev, Michael Hinczewski +3

Natural protein sequences that self-assemble to form globular structures are compact with high packing densities in the folded states. It is known that proteins unfold upon additio…

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.BM2016

Phenomenological and microscopic theories for catch bonds

Shaon Chakrabarti, Michael Hinczewski, D. Thirumalai

Lifetimes of bound states of protein complexes or biomolecule folded states typically decrease when subject to mechanical force. However, a plethora of biological systems exhibit t…

cond-mat.soft2015★ 68 cited

Force-dependent switch in protein unfolding pathways and transition state movements

Pavel I. Zhuravlev, Michael Hinczewski, Shaon Chakrabarti +2

Although known that single domain proteins fold and unfold by parallel pathways, demonstration of this expectation has been difficult to establish in experiments. Unfolding rate, $…

q-bio.BM2015★ 22 cited

Helicase processivity and not the unwinding velocity exhibits universal increase with force

David L. Pincus, Shaon Chakrabarti, D. Thirumalai

Helicases, involved in a number of cellular functions, are motors that translocate along singlestranded nucleic acid and couple the motion to unwinding double-strands of a duplex n…

q-bio.BM2014★ 63 cited

Plasticity of hydrogen bond networks regulates mechanochemistry of cell adhesion complexes

Shaon Chakrabarti, Michael Hinczewski, D. Thirumalai

Mechanical forces acting on cell adhesion receptor proteins regulate a range of cellular functions by formation and rupture of non-covalent interactions with ligands. Typically, fo…