Acousto-modulation speckle correlometry of evolving foams: the influence of acoustic stimulation on foam aging dynamics
E.A. Isaeva1, A.A. Isaeva1, D.A. Zimnyakov1,2
1Yuri Gagarin State Technical University of Saratov, Saratov, Russia
2Institute of Precision Mechanics and Control, Russian Academy of Sciences, Saratov, Russia
Email: 27isaevaea@mail.ru
The experimental findings on the evolution of the structure of model samples of gas-liquid foams using the speckle correlometry method are presented. The experiments were carried out with low-frequency acoustic impact (at a frequency of 2 kHz) on the studied samples and in the absence of impact. The used mode of sounding the sample corresponds to a cyclic alternating change in excess external pressure within the area of interaction of the laser beam with the foam. Accounting for the relationship between the length of the sound wave and the characteristic dimensions of the interaction zone, one can conclude that the excess pressure is quasi-uniformly distributed across the interaction zone. In both cases it was found that there was a self-similar nature of evolution of the foam structure, in which the average size of gas cells in the foam increased over time according to a power law with an exponent equal to 0.5. At the same time, the acoustic impact leads to a significant increase of the velocity constant in the power law and a more rapid growth of correlation time of fluctuations in the intensity of laser radiation scattered by the foam compared to samples of unsounded foam as the studied samples age. The qualitative interpretation of the features observed in the experiment is discussed. Keywords: gas-liquid foams, structure evolution, multiple light scattering, speckle correlometry, acoustic impact.
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