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

Ramin Golestanian FRS

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
  • About
  • Teaching
  • Publications

Active phase separation in mixtures of chemically-interacting particles

EUROPEAN BIOPHYSICS JOURNAL WITH BIOPHYSICS LETTERS 48 (2019) S66-S66

Authors:

J Agudo-Canalejo, R Golestanian

Minimal Condition for Metachronal Wave Patterns of Cilia Arrays

EUROPEAN BIOPHYSICS JOURNAL WITH BIOPHYSICS LETTERS 48 (2019) S210-S210

Authors:

F Meng, R Bennett, N Uchida, R Golestanian

Enhanced Diffusion and Chemotaxis at the Nanoscale

Accounts of Chemical Research American Chemical Society (ACS) 51:10 (2018) 2365-2372

Authors:

Jaime Agudo-Canalejo, Tunrayo Adeleke-Larodo, Pierre Illien, Ramin Golestanian

Far-field theory for trajectories of magnetic ellipsoids in rectangular and circular channels

IMA Journal of Applied Mathematics Oxford University Press 83:4 (2018) 767-782

Authors:

Daiki Matsunaga, Andreas Z枚ttl, Fanlong Meng, Ramin Golestanian, Julia M Yeomans

Abstract:

We report a method to control the positions of ellipsoidal magnets in flowing channels of rectangular or circular cross section at low Reynolds number. A static uniform magnetic field is used to pin the particle orientation and the particles move with translational drift velocities resulting from hydrodynamic interactions with the channel walls which can be described using Blake鈥檚 image tensor. Building on his insights, we are able to present a far-field theory predicting the particle motion in rectangular channels and validate the accuracy of the theory by comparing to numerical solutions using the boundary element method. We find that, by changing the direction of the applied magnetic field, the motion can be controlled so that particles move either to a curved focusing region or to the channel walls. We also use simulations to show that the particles are focused to a single line in a circular channel. Our results suggest ways to focus and segregate magnetic particles in lab-on-a-chip devices.

Control of synchronization in models of hydrodynamically coupled motile cilia

Communications Physics Springer Nature 1:1 (2018) 28

Authors:

Armando Maestro, Nicolas Bruot, Jurij Kotar, Nariya Uchida, Ramin Golestanian, Pietro Cicuta

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