A thermodynamically consistent hydrodynamic theory for chemically active emulsions extends Active Model B+ and predicts microphases when effective interfacial energy is negative, plus bubbly separation and a new dynamic active filament phase under noise.
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Pith papers citing it
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UNVERDICTED 3representative citing papers
Active Model B+ exhibits mean-field critical scaling identical to AMB and supercritical coarsening with logarithmic corrections to t^{1/3} growth that are suppressed by active currents, leading to arrested microphase separation.
In a minimal model of two repulsive self-propelled particles, effective attraction emerges only as a higher-order correction to the renormalized pair potential while the leading term remains repulsive.
citing papers explorer
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Hydrodynamic theory of chemically active emulsions
A thermodynamically consistent hydrodynamic theory for chemically active emulsions extends Active Model B+ and predicts microphases when effective interfacial energy is negative, plus bubbly separation and a new dynamic active filament phase under noise.
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Critical scaling and supercritical coarsening in Active Model B+
Active Model B+ exhibits mean-field critical scaling identical to AMB and supercritical coarsening with logarithmic corrections to t^{1/3} growth that are suppressed by active currents, leading to arrested microphase separation.
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Effective attraction by repulsion
In a minimal model of two repulsive self-propelled particles, effective attraction emerges only as a higher-order correction to the renormalized pair potential while the leading term remains repulsive.