The Journal of Chemical Physics · 2002 · 30 citations · 18 references
Natural SciencesChemistryCondensed Matter PhysicsPhase TransformationsPhysical ChemistryColloidal Self-assemblyDroplet DynamicsNucleationPhase EquilibriaSelf-assemblyCluster NucleationConcentrationExcluded Volume ConstraintsExcluded Volume EffectsExcluded Volume Features
The structural organization in binary immiscible fluids is studied in the presence of mobile particles. We show that the particles, which are included in the favorable phase due to a selective affinity and assemble therein, can drive the favorable phase to self-organize into cluster, interconnected, and network structures, depending on the particle concentration. The detailed studies enable us to confirm the physical origin of the morphology transitions: At low particle concentration, the assembly of particles would amplify the spatial heterogeneity by depleting the favorable phase in the particle-free region, where the hydrodynamic flows further accelerate the dropletlike formation of favorable phase; with increasing the particle concentration, the assembly of particles becomes energetically unfavorable due to the considerably excluded volume effect of particles and they tend to stabilize the percolated structure of the favorable phase. Furthermore, the respective crossover behaviors of the growth dynamics are also observed, corresponding to different structure formations.
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Theory of phase-ordering kinetics
Advances In Physics · 1994 · 2.5K citations · Full text
Surface-induced structure formation of polymer blends on patterned substrates
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Natural Sciences, Materials Engineering, Materials Science +16
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