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Acoustic Rising Microbubbles for Efficient Liquid Operations. [PDF]
Bai C +8 more
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Liquid Patterning Using Droplet Impact on Textured Nonwetting Surfaces. [PDF]
Gidreta BT +3 more
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Pool Boiling Heat Transfer Characteristics of Hydrophobically Modified TiO<sub>2</sub>@Carbon Nanotube Composite Nanofluids. [PDF]
Wu Y +6 more
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Ultrasonic cavitation shock wave exfoliation dynamics of 2D materials revealed in situ by MHz XFEL imaging and multiphysics modeling. [PDF]
Xiang K +25 more
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Cardiovascular Bubble Dynamics
Critical Reviews in Biomedical Engineering, 2005Gas bubbles can form in the cardiovascular system as a result of patho-physiological conditions or can be intentionally introduced for diagnostic or therapeutic reasons. The dynamic behavior of these bubbles is caused by a variety of mechanisms, such as inertia, pressure, interfacial tension, viscosity, and gravity.
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Bubble Dynamics for Single Bubble Sonoluminescence
Journal of the Physical Society of Japan, 2001Problems involved in the bubble dynamics models which have been suggested to explain the sonoluminesence phenomena from a single bubble under ultrasound were discussed. One of the problems is proper choice of the time scale of the driving force, which is related to numerical artifacts due to the mismatch between the natural frequency of an oscillator ...
Ho-Young Kwak +2 more
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Dynamics of bubble-bubble interactions experiencing viscoelastic drag
Physical Review E, 2019The subject of the present theoretical study is the dynamics of bubble-bubble interactions in a viscoelastic medium. First, new equations for calculating the viscoelastic drag exerted on bubbles during their translational motion in a viscoelastic medium are derived.
Ekaterina, Zilonova +2 more
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AIP Conference Proceedings, 1972
The equation of motion for the bubble domain, in which the position and radius of the bubble are variable, has been formulated and solved under several types of propagating fields. It has been found that the maximum speed of bubble propagation is obtained when the propagating field has the form of a traveling wave. For the traveling wave, four types of
S. Fujiwara +4 more
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The equation of motion for the bubble domain, in which the position and radius of the bubble are variable, has been formulated and solved under several types of propagating fields. It has been found that the maximum speed of bubble propagation is obtained when the propagating field has the form of a traveling wave. For the traveling wave, four types of
S. Fujiwara +4 more
openaire +1 more source

