Xueyuan Leng, Yurii B. Kolesnikov
This study investigates the effects of an axial homogeneous magnetic field on turbulence in Taylor-Couette flow, which is confined between two infinitely long conducting cylinders. The inner cylinder is set to rotate while the outer cylinder remains stationary. Direct numerical simulations employing a periodic boundary condition in the axial direction are utilized to analyze the flow characteristics under the influence of the magnetic field at low magnetic Reynolds numbers. The simulations reveal significant alterations in turbulence properties correlated with variations in the magnetic field strength. Notably, the outcomes show a reduction in turbulence intensity and changes in the flow structure as the applied magnetic field influences the stability of the flow regime. These findings provide essential insights into the interaction between magnetohydrodynamic effects and turbulent flows in conducting fluids, which have important implications for engineering applications involving liquid metals and astrophysical phenomena. Furthermore, the study highlights the capabilities of advanced numerical methods in solving complex fluid dynamics problems under magnetic influences.
@article{74deebee-8f36-4412-a0b4-91ab9f690771,
title={Numerical simulation of turbulent Taylor},
author={Xueyuan Leng and Yurii B. Kolesnikov},
year={2026},
language={en}
}TY - JOUR TI - Numerical simulation of turbulent Taylor AU - Xueyuan Leng AU - Yurii B. Kolesnikov PY - 2026 LA - en ER -
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