The effect of particle geometry on swimming in a shear-thinning fluid
ORAL
Abstract
Biological and artificial microscopic swimmers often find themselves immersed in fluids with
non-Newtonian rheological properties. In particular, many biological fluids such as blood and
mucus are shear-thinning. Recent studies have demonstrated how shear-thinning rheology can
substantially impact the propulsion performance in non-trivial manners. In this talk, we will
present results on the effect of particle geometry on the propulsion in a shear-thinning fluid. The
results could inform the design of microscopic swimmers with robust propulsion performance in
complex fluids with varying rheological properties.
non-Newtonian rheological properties. In particular, many biological fluids such as blood and
mucus are shear-thinning. Recent studies have demonstrated how shear-thinning rheology can
substantially impact the propulsion performance in non-trivial manners. In this talk, we will
present results on the effect of particle geometry on the propulsion in a shear-thinning fluid. The
results could inform the design of microscopic swimmers with robust propulsion performance in
complex fluids with varying rheological properties.
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Presenters
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Brandon van Gogh
Department of Mechanical Engineering, Santa Clara University
Authors
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Brandon van Gogh
Department of Mechanical Engineering, Santa Clara University
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Ebru Demir
Department of Mechanical Engineering, Santa Clara University
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Devanayagam Palaniappan
Department of Mathematics and Statistics, Texas A&M University, Corpus Christi
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On Shun Pak
Santa Clara University, Department of Mechanical Engineering, Santa Clara University