Приклади вживання Acoustic cavitation Англійська мовою та їх переклад на Українською
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Ultrasonic or acoustic cavitation is the.
Ultrasonic extraction is based on the principle of acoustic cavitation.
This video shows ultrasonic/ acoustic cavitation in water- generated by the Hielscher UIP1000.
Confirmatory experiments for nuclear Emissions During acoustic cavitation.
Ultrasonic extraction is based on acoustic cavitation and its hydrodynamic shear forces.
The exposure of liquids toultrasonic waves of high intensity causes acoustic cavitation.
Ultrasonic food processing is based on acoustic cavitation and its hydrodynamic shear forces.
Acoustic Cavitation occurs when the passage of high intensity acoustic waves through the liquid.
This phenomenon is known as acoustic cavitation.
The ultrasound generated acoustic cavitation and shear forces perforate or break the cell membrane of E.
When high-power ultrasound is coupled into liquid, acoustic cavitation occurs.
Acoustic cavitation microscopic areas of vacuum-like pressures and high temperatures that tear cells apart.
Ultrasonic exfoliation of graphite oxide(GrO)is based on the high shear force induced by acoustic cavitation.
Acoustic cavitation describes the phenomenon of the generation, growth and eventual implosion of the cavitation bubbles.
When high performance ultrasound is applied to liquid systems(including slurries andviscous pastes) acoustic cavitation is generated.
Acoustic cavitation is the working principle of ultrasonic milling, dispersing, emulsification and sonochemistry.
For ultrasonic extraction,powerful ultrasound waves are coupled into the plant-solvent mixture, so that acoustic cavitation occurs.
Acoustic cavitation is described as the ultrasonically caused formation, growth, and implosive collapse of bubbles in liquids.
When high power/ lowfrequency ultrasound is introduces into a liquid medium, the resulting acoustic cavitation creates unique conditions.
Acoustic cavitation refers to the phenomenon of the rapid formation, growth, and implosive collapse of vapor filled voids.
When intense ultrasoundwaves are applied to liquid systems, acoustic cavitation occurs, which is the phenomenon of the generation, growth and eventual collapse of vacuum bubbles(see pic. below).
Acoustic cavitation creates extreme conditions, including very high temperature and pressure differentials, turbulences, shear forces and liquid jets.
When powerful ultrasound is applied to chemical reactions in solution(liquid or slurry state), it provides specific activation energy due to a physical phenomenon,known as acoustic cavitation.
Acoustic cavitation occurs when highly intense ultrasound waves(e.g. high amplitudes of 100µm, generated by 20-26kHz ultrasound) are coupled into a liquid.
Intense ultrasonic waves generate rapid micro-movement and acoustic cavitation in solid-liquid systems(e. g vegetal material in solvent, e.g. tobacco leaves in ethanol), which results in an increased mass transfer as well as an accelerated extraction process.
Acoustic cavitation arises due to the alternating high pressure/ low pressure cycles, which are generated by the coupling of powerful ultrasound waves in a liquid.
This intensifies the acoustic cavitation, resulting in higher hydraulic shear and pressure and temperature differentials due to a more violent implosion of the cavitation bubbles.
Acoustic cavitation breaks the cell walls and membranes to extract DNA from cells and generate fragments of about 600- 800 bp in length, which is ideal for analysis.
The acoustic cavitation generated by intense sonication creates energy-dense conditions such as high pressure and temperature differentials as well as high shear forces and turbulences.
Acoustic cavitation, the working principle behind ultrasonic deagglomeration and milling, creates intense hydraulic shear forces, which overcome the interparticle bondings and promote deagglomeration of agglomerated particles to mono-dispersed nanoparticles.