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VOL. 1, ISSUE 1 (2025)
Magnetic field control of electrically conducting fluid flow
Authors
Ch. Kishore Kumar, S Renuka
Abstract
Magnetic field control
of electrically conducting fluids is a critical phenomenon in a wide range of
industrial and scientific applications, including nuclear cooling, metal
processing, and plasma dynamics. The interaction between a magnetic field and
an electrically conducting fluid leads to the generation of Lorentz forces,
which significantly modify the fluid flow and heat transfer characteristics.
These forces act as resistance to the fluid motion, which can either stabilize
or disrupt the flow, depending on the strength and orientation of the magnetic
field. This control mechanism offers valuable insights into the design of
efficient cooling systems, energy generation processes, and electromagnetic
fluid manipulation technologies. This study explores the fundamental principles
behind MHD (Magnetohydrodynamics) in electrically conducting fluids, examining
the impact of magnetic fields on the velocity profiles, thermal behavior, and
pressure distribution within various flow configurations. The findings contribute
to optimizing magnetic field-based control systems for better fluid flow
regulation in engineering applications, where precise heat and mass transport
are crucial.
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Pages:6-10
How to cite this article:
Ch. Kishore Kumar, S Renuka "Magnetic field control of electrically conducting fluid flow". World Journal of Physics and Applications, Vol 1, Issue 1, 2025, Pages 6-10
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