Ultrasonic Cavitation at Solid Surfaces
Ультразвуковая кавитация на твердых поверхностях
2011-02-18
SCID: 54.1/79gs5aym
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functional surface developmenthigh-intensity ultrasoundsonochemistry at solid surfacessurface cleaningultrasonic cavitation
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Abstract (AI)
In spite of the great potential of applying high-intensity ultrasound, which enables high-temperature and high-pressure chemistry with a reactor near room temperature and ambient pressure, sonochemistry at solid surfaces is at a weak stage of understanding with regards to the development of new materials and composite nanostructures. The science towards a quantitative understanding is only now emerging. On the other hand, in many applications an ultrasonic bath is used without thinking of the mechanism. Often surfaces are exposed to ultrasound for cleaning. Since ultrasonic treatment is not an exotic process and applicable even on large scale in industrial manufacturing, controlling the process may lead to new applications making use of the specially designed surface. This review is intended to summarize recent progress in this field and to point out most promising directions of ultrasound application for the development of new materials with functional surfaces.
Key Findings
1
Controlling ultrasonic cavitation at solid surfaces could enable new applications and the development of specially designed functional surfaces and composite nanostructures.
2
High-intensity ultrasound enables high-temperature and high-pressure chemistry while keeping the reactor near room temperature and ambient pressure.
3
This review summarizes recent progress and identifies promising directions for applying ultrasound to create new materials with functional surfaces.
4
Ultrasonic treatment of surfaces is widely used (e.g., cleaning) and is scalable to industrial manufacturing, often applied without detailed consideration of mechanisms.
5
Understanding of sonochemistry at solid surfaces is currently weak but quantitative science in this area is now beginning to emerge.
Research Object
Ultrasonic cavitation at solid surfaces
Research Subject
Mechanisms and effects of ultrasonic cavitation on solid surfaces relevant to sonochemical processing, surface cleaning, and the development of new materials and functional composite nanostructures
Publication Details
Publication Date
2011-02-18
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