A modified formula for absorption influence on sound transmission through partitions: Part 2—Flanking between coupled rooms in terms of modified partition area

Considering liquid viscosity, surface tension, and liquid compressibility, the effects of dynamical behaviors of cavitation bubbles on temperature and the amount of oxides inside the bubble are numerically investigated by acoustic field, regarding water as a work medium. The effects of acoustic frequency, acoustic pressure amplitude, and driving waveforms on bubble temperature and the number of oxides inside the bubbles by rapid collapse of cavitation bubbles are analysed. The results show that the changes of acoustic frequency, acoustic pressure amplitude, and driving waveforms not only have an effect on temperature and the number of oxides inside the bubble, but also influence the degradation species of pollution, which provides guidance for improving the degradation of water pollution.

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A modified formula for absorption influence on sound transmission through partitions: Part 2—Flanking between coupled rooms in terms of modified partition area

Cited by 2 publications

References 1 publication

Charts for acoustic design of rooms exposed to outdoor and indoor noise

Charts for acoustic design of rooms exposed to outdoor and indoor noise

Theoretical prediction of the yield of strong oxides under acoustic cavitation

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