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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Active micromachines: Microfluidics powered by mesoscale turbulence
TL;DR: In this article, an ordered array of symmetric rotors in an active fluid is used to generate work in a microfluidic system, where the lattice of rotors self-organises into a spin-state where neighboring discs continuously rotate in permanent alternating directions due to combined hydrodynamic and elastic effects.
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The macroscopic pancake bounce
Jonas Andersen Bro,Kasper Sternberg Brogaard Jensen,Alex Nygaard Larsen,Julia M. Yeomans,Tina Hecksher +4 more
TL;DR: In this paper, the authors demonstrate that the pancake bounce of millimetric water droplets on surfaces patterned with hydrophobic posts can be reproduced on larger scales, using a bed of nails as the structured surface and a water balloon as the water droplet.
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Sustained oscillations of epithelial cell sheets
Grégoire Peyret,Romain Mueller,Joseph D'Alessandro,Simon Begnaud,Philippe Marcq,René-Marc Mège,Julia M. Yeomans,Amin Doostmohammadi,Benoit Ladoux,Benoit Ladoux +9 more
TL;DR: It is shown that epithelial cells exhibit large-scale coherent oscillations when constrained within micro-patterns of varying shapes and sizes, and that their period and amplitude are set by the smallest confinement dimension.
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Wet to dry crossover and a flow vortex-lattice in active nematics
TL;DR: In this article, the authors unify two different classes of active matter by using friction as a control parameter to interpolate between wet active systems, whose behaviour is dominated by hydrodynamics, and dry active systems where any flow is screened.
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Driven spheres, ellipsoids and rods in explicitly modeled polymer solutions.
Andreas Zöttl,Julia M. Yeomans +1 more
TL;DR: In this article, the authors performed hydrodynamic multiparticle collision dynamics simulations of spherical and elongated particles driven through polymeric fluids containing different concentrations of polymers and found that polymer-depleted regions close to the particles are responsible for an apparent tangential slip velocity which accounts for the measured flow fields and transport velocities.