J
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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Wetting between concentric spheres
TL;DR: In this paper, the mean field phase diagram of a system at bulk coexistence contained between two concentric spheres as a function of the sphere radii, the temperature and the interactions with the surface is presented.
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Jetting Micron-Scale Droplets onto Chemically Heterogeneous Surfaces
TL;DR: In this article, the behavior of micron-scale fluid droplets jetted onto surfaces patterned with lyophobic and lyophilic stripes was investigated and the final droplet shape depends on the droplet size relative to that of the stripes.
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Active matter in a viscoelastic environment
Emmanuel Lance Christopher Vi Medillo Plan,Emmanuel Lance Christopher Vi Medillo Plan,Julia M. Yeomans,Amin Doostmohammadi,Amin Doostmohammadi +4 more
TL;DR: A two-phase model of active nematic matter that dynamically interacts with a passive viscoelastic polymeric phase is presented and it is shown that the self-propulsion of a model keratocyte cell is modified by the polymer relaxation of the surrounding vis coelastic fluid in a non-uniform manner.
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Coupling Turing stripes to active flows.
TL;DR: In this article, the authors numerically solve the active nematohydrodynamic equations of motion coupled to a Turing reaction-diffusion model to study the effect of active nematic flow on the stripe patterns resulting from a Turing instability.
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A series approach to wetting and layering transitions. I. Potts models
K Armitstead,Julia M. Yeomans +1 more
TL;DR: In this paper, the authors considered a q-state Potts model, which contains an interface bound to a surface by a bulk field, and showed that the interface unbinds from the surface through a sequence of first-order layering transitions.