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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
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  • Publications

Dynamical theory of topological defects I: the multivalued solution of the diffusion equation

Journal of Statistical Mechanics Theory and Experiment IOP Publishing 2023:8 (2023) 083211

Authors:

Jacopo Romano, Benoît Mahault, Ramin Golestanian
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Hydrodynamics of an odd active surfer in a chiral fluid

New Journal of Physics IOP Publishing 25:8 (2023) 083046

Authors:

Yuto Hosaka, Ramin Golestanian, Abdallah Daddi-Moussa-Ider
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Axisymmetric monopole and dipole flow singularities in proximity of a stationary no-slip plate immersed in a Brinkman fluid

Physical Review Research American Physical Society (APS) 5:3 (2023) 033030

Authors:

Abdallah Daddi-Moussa-Ider, Yuto Hosaka, Andrej Vilfan, Ramin Golestanian
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Self-organization of primitive metabolic cycles due to non-reciprocal interactions.

Nature communications 14:1 (2023) 4496

Authors:

Vincent Ouazan-Reboul, Jaime Agudo-Canalejo, Ramin Golestanian

Abstract:

One of the greatest mysteries concerning the origin of life is how it has emerged so quickly after the formation of the earth. In particular, it is not understood how metabolic cycles, which power the non-equilibrium activity of cells, have come into existence in the first instances. While it is generally expected that non-equilibrium conditions would have been necessary for the formation of primitive metabolic structures, the focus has so far been on externally imposed non-equilibrium conditions, such as temperature or proton gradients. Here, we propose an alternative paradigm in which naturally occurring non-reciprocal interactions between catalysts that can partner together in a cyclic reaction lead to their recruitment into self-organized functional structures. We uncover different classes of self-organized cycles that form through exponentially rapid coarsening processes, depending on the parity of the cycle and the nature of the interaction motifs, which are all generic but have readily tuneable features.
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Defect Solutions of the Non-reciprocal Cahn-Hilliard Model: Spirals and Targets

(2023)

Authors:

Navdeep Rana, Ramin Golestanian
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