A chirality-switching model of 2D active particles produces robust topological edge currents in confinement and at phase-separation interfaces, distinct from standard motility-induced phase separation.
Title resolution pending
3 Pith papers cite this work. Polarity classification is still indexing.
3
Pith papers citing it
fields
cond-mat.soft 3years
2026 3verdicts
UNVERDICTED 3representative citing papers
Pusher microswimmers are hydrodynamically attracted to and transiently trapped at meniscus corners before escaping, with trajectories tunable by swimmer type, geometry, and viscosity ratio.
Bacterial populations exhibit active gas, liquid, glass, and liquid crystal phases that differ from equilibrium thermal counterparts, with implications for physics and biology.
citing papers explorer
-
Designing topological edge currents in chiral active matter
A chirality-switching model of 2D active particles produces robust topological edge currents in confinement and at phase-separation interfaces, distinct from standard motility-induced phase separation.
-
Hydrodynamic capture and release of a microswimmer by a meniscus corner
Pusher microswimmers are hydrodynamically attracted to and transiently trapped at meniscus corners before escaping, with trajectories tunable by swimmer type, geometry, and viscosity ratio.
-
Various phases of active matter emerging from bacteria and their implications
Bacterial populations exhibit active gas, liquid, glass, and liquid crystal phases that differ from equilibrium thermal counterparts, with implications for physics and biology.