Interference of dynamical arrest, thermodynamic instabilities and energy-scale competition in symmetric binary mixtures

While energy scale competition dictates equilibrium phase behavior, kinetic barriers often drive soft-matter mixtures into dynamically arrested states, rendering conventional phase diagrams incomplete. We extend the classification of binary systems into regions of thermodynamic instability to explore the interplay between phase separation and dynamical arrest. Strong cross-attractions kinetically suppress demixing, whereas competitive energy scales yield either condensation- or demixing-driven amorphous states. We show that this morphological crossover is parameterized by a structural order parameter, χ, providing a unified non-equilibrium framework that reconciles theoretical predictions with experimentally observed arrested mixtures.

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Journal
Physics of Fluids
Published
2026-09-01
DOI
https://doi.org/10.1063/5.0347876
Primary Topic
Material Dynamics and Properties
Type
article
Field-Weighted Citation Impact
0.00

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article

Interference of dynamical arrest, thermodynamic instabilities and energy-scale competition in symmetric binary mixtures

R. Peredo-Ortíz, L. F. Elizondo-Aguilera, Edilio Lázaro-Lázaro, Magdaleno Medina-Noyola
Physics of Fluids
Material Dynamics and Properties
article

Interference of dynamical arrest, thermodynamic instabilities and energy-scale competition in symmetric binary mixtures

R. Peredo-Ortíz, L. F. Elizondo-Aguilera, Edilio Lázaro-Lázaro, Magdaleno Medina-Noyola
article en

Abstract

While energy scale competition dictates equilibrium phase behavior, kinetic barriers often drive soft-matter mixtures into dynamically arrested states, rendering conventional phase diagrams incomplete. We extend the classification of binary systems into regions of thermodynamic instability to explore the interplay between phase separation and dynamical arrest. Strong cross-attractions kinetically suppress demixing, whereas competitive energy scales yield either condensation- or demixing-driven amorphous states. We show that this morphological crossover is parameterized by a structural order parameter, χ, providing a unified non-equilibrium framework that reconciles theoretical predictions with experimentally observed arrested mixtures.

Physics of FluidsVol. 38(9)
Autonomous University of San Luis Potosí (MX), University of Tulsa (US)
Consejo Nacional de Ciencia y Tecnología
Openalex Percentile: Top 67%
Material Dynamics and Properties
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