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

Julia Yeomans OBE FRS

Professor of Physics

Research theme

  • Biological physics

Sub department

  • Rudolf Peierls Centre for Theoretical Physics

Research groups

  • Condensed Matter Theory
Julia.Yeomans@physics.ox.ac.uk
Telephone: 01865 (2)76884 (college),01865 (2)73992
Rudolf Peierls Centre for Theoretical Physics, room 70.10
www-thphys.physics.ox.ac.uk/people/JuliaYeomans
  • About
  • Publications

Length-dependent translocation of polymers through nanochannels

SOFT MATTER 8:6 (2012) 1884-1892

Authors:

R Ledesma-Aguilar, T Sakaue, JM Yeomans
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Meso-scale turbulence in living fluids

PROCEEDINGS OF THE NATIONAL ACADEMY OF SCIENCES OF THE UNITED STATES OF AMERICA 109:36 (2012) 14308-14313

Authors:

Henricus H Wensink, Joern Dunkel, Sebastian Heidenreich, Knut Drescher, Raymond E Goldstein, Hartmut Loewen, Julia M Yeomans
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Partial-post Laplace barriers for virtual confinement, stable displacement, and >5 cm s-1 electrowetting transport (vol 11, pg 4221, 2011)

LAB ON A CHIP 12:24 (2012) 5279-5279

Authors:

E Kreit, BM Mognetti, JM Yeomans, J Heikenfeld
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SURFACE EVOLVER SIMULATIONS OF DROPS ON MICROPOSTS

INTERNATIONAL JOURNAL OF MODERN PHYSICS C 23:8 (2012) ARTN 1240013

Authors:

Matthew L Blow, Julia M Yeomans
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Confining blue phase colloids to thin layers

Soft Matter 7:21 (2011) 10144-10150

Authors:

M Ravnik, JI Fukuda, JM Yeomans, S Žumer

Abstract:

Colloidal assembly in strongly confined cholesteric structures is demonstrated using phenomenological modelling. Particle trapping sites and trapping potentials, which are intrinsically imposed by the strongly anisotropic orientational profile of the confined blue phases, are calculated. Locations of the trapping sites and profiles of the trapping potentials are shown to depend importantly on the particle size, and the array of trapping sites can even change symmetry. Trapping sites provide robust binding of various colloidal structures with binding energy of ∼100kT for ∼100 nm particles. Maximising the filling of the trapping sites by particles proves to lower the full free energy of the system, offering means for thermodynamic stabilisation of confined blue phases. Finally, we present formation of disclination cages, formed as a three-dimensional closed network of defect lines surrounding sufficiently large particles with strong homeotropic anchoring. © 2011 The Royal Society of Chemistry.
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