Active Brownian particles drive polymer condensates into percolated networks that persist via topological winding even after the particles are removed, creating activity-induced memory in a fluid.
arXiv preprint arXiv:2601.03221 , year=
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cond-mat.soft 3years
2026 3representative citing papers
Hydrodynamic simulations demonstrate that neutrally wetting microswimmers stabilize bicontinuous emulsions in symmetric binary fluids via source and force dipole activity below a self-propulsion threshold.
Activity in SALR colloidal suspensions enhances particle transport while preserving microphase structure, producing a structure-dynamics decoupling.
citing papers explorer
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Active Particles Imprint Persistent Percolating Networks in Polymer Condensates
Active Brownian particles drive polymer condensates into percolated networks that persist via topological winding even after the particles are removed, creating activity-induced memory in a fluid.
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Microswimmers create bicontinuous emulsions in binary fluids
Hydrodynamic simulations demonstrate that neutrally wetting microswimmers stabilize bicontinuous emulsions in symmetric binary fluids via source and force dipole activity below a self-propulsion threshold.
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Activity enhances transport while competing interactions preserve structure in colloidal microphase formers
Activity in SALR colloidal suspensions enhances particle transport while preserving microphase structure, producing a structure-dynamics decoupling.