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20182021
most citedRegularized Stokeslet rings - an efficient method for axisymmetric Stokes flow, with application to the growing pollen tube

3 citations · 3 across the 4 of their papers we have counts for

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physics.flu-dyn2021

Squirmer hydrodynamics near a periodic surface topography

Kenta Ishimoto, Eamonn A. Gaffney, David J. Smith

The behaviour of microscopic swimmers has previously been explored near large scale confining geometries and in the presence of very small-scale surface roughness. Here we consider…

physics.flu-dyn2020

Passively parallel regularized stokeslets

Meurig T. Gallagher, David J. Smith

Stokes flow, discussed by G.G. Stokes in 1851, describes many microscopic biological flow phenomena, including cilia-driven transport and flagellar motility; the need to quantify a…

physics.flu-dyn2019

Doing more with less: the flagellar end piece enhances the propulsive effectiveness of human spermatozoa

Cara V. Neal, Atticus L. Hall-McNair, Jackson Kirkman-Brown +2

Spermatozoa self-propel by propagating bending waves along a predominantly active elastic flagellum. The organized structure of the "9 + 2" axoneme is lost in the most-distal few m…

physics.flu-dyn2019

Efficient Implementation of Elastohydrodynamics via Integral Operators

Atticus L. Hall-McNair, Thomas D. Montenegro-Johnson, Hermes Gadelha +2

The dynamics of geometrically non-linear flexible filaments play an important role in a host of biological processes, from flagella-driven cell transport to the polymeric structure…

physics.flu-dyn20193 cited

Regularized Stokeslet rings - an efficient method for axisymmetric Stokes flow, with application to the growing pollen tube

James Tyrrell, David J Smith, Rosemary J Dyson

The method of regularized Stokeslets, based on the divergence-free exact solution to the equations of highly viscous flow due to a spatially-smoothed concentrated force, is widely…

physics.flu-dyn2018

Biological Fluid Mechanics Under the Microscope: A Tribute to John Blake

David J. Smith

John Blake (1947--2016) was a leader in fluid mechanics, his two principal areas of expertise being biological fluid mechanics on microscopic scales and bubble dynamics. He produce…