A unified framework for N-phase Navier–Stokes Cahn–Hilliard Allen–Cahn mixture models with non-matching densities

Over the past few decades, numerous N-phase incompressible diffuse-interface flow models with non-matching densities have been proposed. Despite aiming to describe the same physics, these models are generally distinct, and an overarching modelling framework is absent. This paper provides a unified framework for N-phase incompressible Navier–Stokes Cahn–Hilliard Allen–Cahn mixture models with a single momentum equation. The framework emerges naturally from continuum mixture theory, exhibits an energy-dissipative structure, and is invariant to the choice of fundamental variables. This opens the door to exploring connections between existing N-phase models and facilitates the computation of N-phase flow models rooted in continuum mixture theory.

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Publication Details

Journal
Journal of Fluid Mechanics
Published
2025-06-19
DOI
https://doi.org/10.1017/jfm.2025.10186
Citations
3
Primary Topic
Solidification and crystal growth phenomena
Type
article
Field-Weighted Citation Impact
1.55
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article

A unified framework for N-phase Navier–Stokes Cahn–Hilliard Allen–Cahn mixture models with non-matching densities

Marco F. P. ten Eikelder
3 citations
Journal of Fluid Mechanics
Solidification and crystal growth phenomena
1.55
article

A unified framework for N-phase Navier–Stokes Cahn–Hilliard Allen–Cahn mixture models with non-matching densities

Marco F. P. ten Eikelder
article en
3 citations

Abstract

Over the past few decades, numerous N-phase incompressible diffuse-interface flow models with non-matching densities have been proposed. Despite aiming to describe the same physics, these models are generally distinct, and an overarching modelling framework is absent. This paper provides a unified framework for N-phase incompressible Navier–Stokes Cahn–Hilliard Allen–Cahn mixture models with a single momentum equation. The framework emerges naturally from continuum mixture theory, exhibits an energy-dissipative structure, and is invariant to the choice of fundamental variables. This opens the door to exploring connections between existing N-phase models and facilitates the computation of N-phase flow models rooted in continuum mixture theory.

Journal of Fluid MechanicsVol. 1013
Technische Universität Darmstadt (DE)
Affordable and clean energy
Openalex Percentile: Top 17%
Solidification and crystal growth phenomena
1.55
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