Phenomenological models of kinetics of processes in the systems with continuum fluid phase for the optimization of ultrasonic cavitation energy efficiency

The general approach for modeling of processes in the systems with continuum fluid phase under ultrasonic cavitation influence was proposed. This approach includes studying of all stages of ultrasonic energy transformation begun from ultrasonic radiator and ended up to target change of medium struct...

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Veröffentlicht in:Journal of physics. Conference series 2020-11, Vol.1666 (1), p.12013
1. Verfasser: Golykh, Roman N.
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description The general approach for modeling of processes in the systems with continuum fluid phase under ultrasonic cavitation influence was proposed. This approach includes studying of all stages of ultrasonic energy transformation begun from ultrasonic radiator and ended up to target change of medium structure; calculating of real energy spent for medium structure change. Models of kinetics of real processes (macromolecules mechanical destruction and dispersing of suspension particles) under ultrasonic cavitation influence were developed. They models use proposed general approach and allow to evaluate optimum modes providing maximum energy efficiency of processes and improving of final product parameters.
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subjects Cavitation
Energy conversion
Energy efficiency
Kinetics
Macromolecules
Optimization
Physics
Radiators
title Phenomenological models of kinetics of processes in the systems with continuum fluid phase for the optimization of ultrasonic cavitation energy efficiency
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