Energy-stable mixed finite element methods for the Rosensweig ferrofluid flow model
Yongke Wu, Xiaoping Xie

TL;DR
This paper develops energy-stable mixed finite element methods for the Rosensweig ferrofluid flow model, ensuring stability, existence, uniqueness, and optimal error estimates, supported by numerical validation.
Contribution
It introduces energy-stable mixed finite element discretizations for the ferrofluid model, with proven stability, existence, uniqueness, and optimal error bounds.
Findings
Energy stability preserved in discretizations
Existence and uniqueness of discrete solutions proven
Optimal error estimates derived and verified numerically
Abstract
In this paper, we consider mixed finite element semi-/full discretizations of the Rosensweig ferrofluid flow model. We first establish some regularity results for the model under several basic assumptions. Then we show that the energy stability of the weak solutions is preserved exactly for both the semi-discrete and fully discrete finite element solutions. Moreover, we prove the existence and uniqueness of the discrete solutions. We also derive optimal error estimates for the discrete schemes. Finally, we provide numerical experiments to verify the theoretical results.
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Taxonomy
TopicsCharacterization and Applications of Magnetic Nanoparticles · Lattice Boltzmann Simulation Studies · Fluid Dynamics and Turbulent Flows
