Bifurcations of Free Thermal Vibrational Convection in Cylindrical Fluid Layer in Micro-Gravity: Numerical and Analytical Research
Albert N. Sharifulin

TL;DR
This paper investigates how vibrations affect thermal convection in cylindrical fluid layers in microgravity, revealing bifurcations that significantly alter heat transfer, using numerical, analytical, and generalized Lorenz models.
Contribution
It introduces a generalized Lorenz model to analyze bifurcations in vibrational convection, providing new insights into fluid response in microgravity environments.
Findings
Bifurcations cause sharp changes in heat transfer.
The shape of steady-state flow surfaces is characterized.
Numerical and analytical results are compared and validated.
Abstract
The analysis of vibration effect on non-isothermal fluid in closed cavity is important for planning technological experiments in space. Control and optimization of these processes critically depend on the understanding of liquid response to the vibrations. With this aim the theoretical investigation for infinite plane and cylindrical fluid layers are performed. We investigated simple case of the fluid response-thermal vibrational convection in a cylindrical fluid layer with rigid conducting boundaries. It is found that steady modes of thermal vibrational convection are subjected to various bifurcations. Bifurcations cause sharp changes in heat transfer. The Lorenz model is generalized (GLM) and used to conduct the analysis of bifurcations caused by the changing of the cavity shape and vibrational Rayleigh number. The shape of steady-state surface in 3D space of the streamfunction of…
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Taxonomy
TopicsGeomagnetism and Paleomagnetism Studies · Characterization and Applications of Magnetic Nanoparticles · Particle Dynamics in Fluid Flows
