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Julia M. Yeomans

Researcher at University of Oxford

Publications -  421
Citations -  21122

Julia M. Yeomans is an academic researcher from University of Oxford. The author has contributed to research in topics: Lattice Boltzmann methods & Liquid crystal. The author has an hindex of 69, co-authored 410 publications receiving 18437 citations. Previous affiliations of Julia M. Yeomans include Eindhoven University of Technology & Sultan Qaboos University.

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Phase ordering in nematic liquid crystals.

TL;DR: The kinetics of the nematic-isotropic transition in a two-dimensional liquid crystal is studied by using a lattice Boltzmann scheme that couples the tensor order parameter and the flow consistently and finds that the time dependences of the correlation function, energy density, and number of topological defects obey dynamic scaling laws with growth exponents that agree with the value 1/2 expected from simple dimensional analysis.
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Anisotropic wetting and de-wetting of drops on substrates patterned with polygonal posts

TL;DR: In this paper, the authors show how water drops, produced by ink-jet printing, spread on surfaces patterned with lattices of diamond or triangular posts and observe drop shapes with 3, 4 and 6-fold symmetry depending on both the symmetry of the lattice and the shape of the posts.
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Lattice Boltzmann simulations of attenuation-driven acoustic streaming

TL;DR: In this article, lattice Boltzmann simulations are used to model the attenuation-driven acoustic streaming produced by a travelling wave and the streaming pattern produced by an imposed body force approximating the Reynolds stresses.
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Superhydrophobicity on Hairy Surfaces

TL;DR: It is found that now both singlets and doublets can exhibit superhydrophobic behavior on hydrophilic hairs, and the results can be modified to describe an array of hairs in three dimensions.
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Twist-induced crossover from two-dimensional to three-dimensional turbulence in active nematics.

TL;DR: In this article, a film of active nematics between two parallel plates is shown to behave as a quasi-2D material, with straight topological disclination lines spanning the height of the channel and exhibiting effectively 2D active turbulence.