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Main Authors: Cirillo, Emilio N. M., Lyons, Rainey, Muntean, Adrian, Muntean, Stela Andrea
Format: Preprint
Published: 2024
Subjects:
Online Access:https://arxiv.org/abs/2405.16459
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author Cirillo, Emilio N. M.
Lyons, Rainey
Muntean, Adrian
Muntean, Stela Andrea
author_facet Cirillo, Emilio N. M.
Lyons, Rainey
Muntean, Adrian
Muntean, Stela Andrea
contents Inspired by experimental evidence collected when processing thin films from ternary solutions made of two solutes, typically polymers, and one solvent, we computationally study the morphology formation of domains obtained in three-state systems using both a lattice model and a continuum counterpart. The lattice-based approach relies on the Blume-Capel nearest neighbor model with bulk conservative Kawasaki dynamics, whereas as continuum system we consider a coupled system of evolution equations that is derived as hydrodynamic limit when replacing the nearest neighbor interaction in the lattice case by a suitable Kac potential. We explore how the obtained morphology depends on the solvent content in the mixture. In particular, we study how these scenarios change when the solvent is allowed to evaporate.
format Preprint
id arxiv_https___arxiv_org_abs_2405_16459
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle Pattern formation in three-state systems: Towards understanding morphology formation in the presence of evaporation
Cirillo, Emilio N. M.
Lyons, Rainey
Muntean, Adrian
Muntean, Stela Andrea
Statistical Mechanics
Mathematical Physics
Inspired by experimental evidence collected when processing thin films from ternary solutions made of two solutes, typically polymers, and one solvent, we computationally study the morphology formation of domains obtained in three-state systems using both a lattice model and a continuum counterpart. The lattice-based approach relies on the Blume-Capel nearest neighbor model with bulk conservative Kawasaki dynamics, whereas as continuum system we consider a coupled system of evolution equations that is derived as hydrodynamic limit when replacing the nearest neighbor interaction in the lattice case by a suitable Kac potential. We explore how the obtained morphology depends on the solvent content in the mixture. In particular, we study how these scenarios change when the solvent is allowed to evaporate.
title Pattern formation in three-state systems: Towards understanding morphology formation in the presence of evaporation
topic Statistical Mechanics
Mathematical Physics
url https://arxiv.org/abs/2405.16459