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Theoretical physicists working at a blackboard collaboration pod in the Beecroft building.
Credit: Jack Hobhouse

Prof Ramin Golestanian

Professor of Theoretical Condensed Matter Physics

Sub department

  • Rudolf Peierls Centre for Theoretical Physics

Research groups

  • Condensed Matter Theory
Ramin.Golestanian@physics.ox.ac.uk
Telephone: 01865 273974
Rudolf Peierls Centre for Theoretical Physics, room 60.12
Max Planck Institute for Dynamics and Self-Organization
Oxford Podcast (2014): Living Matter & Theo Phys
Oxford Podcast (2017): The bacterial Viewpoint
  • About
  • Teaching
  • Publications

Isovolumetric dividing active matter

(2024)

Authors:

Samantha R Lish, Lukas Hupe, Ramin Golestanian, Philip Bittihn
More details from the publisher
Details from ArXiV

Fluctuation Dissipation Relations for Active Field Theories

(2024)

Authors:

Martin Kjøllesdal Johnsrud, Ramin Golestanian
More details from the publisher
Details from ArXiV

Universal mechanistic rules for de novo design of enzymes

(2024)

Authors:

Michalis Chatzittofi, Jaime Agudo-Canalejo, Ramin Golestanian
More details from the publisher
Details from ArXiV

Molecular dynamics simulations of microscopic structural transition and macroscopic mechanical properties of magnetic gels

The Journal of Chemical Physics AIP Publishing 161:7 (2024) 074902

Authors:

Xuefeng Wei, Gaspard Junot, Ramin Golestanian, Xin Zhou, Yanting Wang, Pietro Tierno, Fanlong Meng
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Nonlinear response theory of molecular machines

European Physical Society Letters IOP Publishing 147:2 (2024) 21002

Authors:

Michalis Chatzittofi, Jaime Agudo-Canalejo, Ramin Golestanian

Abstract:

Chemical affinities are responsible for driving active matter systems out of equilibrium. At the nano-scale, molecular machines interact with the surrounding environment and are subjected to external forces. The mechano-chemical coupling which arises naturally in these systems reveals a complex interplay between chemical and mechanical degrees of freedom with strong impact on their active mechanism. By considering various models far from equilibrium, we show that the tuning of applied forces gives rise to a nonlinear response that causes a non-monotonic behaviour in the machines’ activity. Our findings have implications in understanding, designing, and triggering such processes by controlled application of external fields, including the collective dynamics of larger non-equilibrium systems where the total dissipation and performance might be affected by internal and inter-particle interactions.
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