activity
20172020
most citedSlender Phoretic Theory of chemically active filaments

15 citations · 15 across the 4 of their papers we have counts for

collaborators

8 papers

physics.flu-dyn202015 cited

Slender Phoretic Theory of chemically active filaments

Panayiota Katsamba, Sébastien Michelin, Thomas D. Montenegro-Johnson

Artificial microswimmers, or "microbots" have the potential to revolutionise non-invasive medicine and microfluidics. Microbots that are powered by self-phoretic mechanisms, such a…

physics.flu-dyn2020

3-D Printed Swimming Microtori for Cargo Transport and Flow Manipulation

Remmi Baker, Thomas Montenegro-Johnson, Anton D. Sediako +4

Through billions of years of evolution, microorganisms mastered unique swimming behaviors to thrive in complex fluid environments. Limitations in nanofabrication have thus far hind…

q-bio.TO2019

Simulations of particle tracking in the oligociliated mouse node and implications for left-right symmetry breaking mechanics

Meurig T. Gallagher, Thomas D. Montenegro-Johnson, David J. Smith

The concept of internal anatomical asymmetry is familiar; usually in humans the heart is on the left and the liver is on the right, however how does the developing embryo know to p…

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-dyn2018

Thrifty swimming with shear-thinning

David A. Gagnon, Thomas D. Montenegro-Johnson

Microscale propulsion is integral to numerous biomedical systems, for example biofilm formation and human reproduction, where the surrounding fluids comprise suspensions of polymer…

cond-mat.soft2018

Clustering-induced self-propulsion of isotropic autophoretic particles

Akhil Varma, Thomas D. Montenegro-Johnson, Sebastien Michelin

Self-diffusiophoretic particles exploit local concentration gradients of a solute species in order to self-propel at the micron scale. While an isolated chemically- and geometrical…