Mechanism of Intensive Gas and Fluid Mixture in the Process of Vibroturbulization and Its Technological Applications
Abstract
Previously conducted experimental studies have established that in a certain narrow frequency range and upon reaching a certain value of the amplitude of water oscillations in a sealed vessel with above-water air shell, subjected to vertical vibration, a resonant phenomenon occurs, called “vibroturbulization”, leading to intensive mixing of media of different density. The studies carried out were purely experimental in nature and could not reveal the physicochemical mechanism of occurrence, the course of the process, calculate its optimal physicochemical parameters for precise, rather than experimental use, in order to obtain aerosols, mixtures with absolutely immiscible components.
The article reveals the mechanism of intensive mixing of liquid in a hermetic vessel with above-fluid air shell in the process of vibroturbulization, which leads to a strong dispersion of air bubbles, formed from the above-fluid air shell, uniform saturation of the fluid with them and the formation of a uniformly saturated gas-liquid mixture.
The author shows the application of this intensive mixing in technological processes, using the example of advanced foam materials production.
The obtained results permit to use this intensive mixing to obtain any homogeneous multiphase mixture in each specific case.
Keywords
Full Text:
PDFReferences
Tatevosyan R.A. The theoretical bases of the chemical technology, 1977, 11(1), 153-155 pp.
Korneyev N.N. The special feature of the vibration mixing of multicomponent media,
Vestnik AGPU, 2006, 2 (31).
Pilinevich L.P. A study of the process of the separation of solid particles by the sizes, the
form and the mass under the action of vibration, Reports BGUIR, 2015, 6(92).
Gromakovskiy D.G., Byrakov A.P., Kareva N.A. The development of low-frequency
cavitation devices for the washing of the surfaces of the machine parts and instruments,
Proceedings of Samara scientific center of the Russian Academy of Sciences, 2011, 13(1).
Shoikhedbrod M.P. Behavior of water under the influence of vibration and electric field,
Lambert Academic Publishing, Toronto, 2017.
Shoikhedbrod M.P. Process Control of Advanced Foam Materials Production using
Vibroturbulization Optimal Parameters, International Journal of Control and Instrumentation
Engineering, 2021, 7(2).
Bleich H.H. Effect of vibration on the motion of small gas bubbles in a liquid. Jet
propulsion, 1956, 26(11), 958-963pp.
Shoikhedbrod M.P. Physicochemical Modeling of the Process of Vibroturbulization and its
Practical Use for the Intensification of Existing Terrestrial and Implementation of New
Microgravity Technologies, Journal of Fluid Mechanics and Mechanical Design, 2022,
(2), 32-46 pp.
Refbacks
- There are currently no refbacks.
Copyright (c) 2022 Recent Trends in Fluid Mechanics