Ultrasound Cell Crushing Disruption Efficiency Fragmentation 20Khz
1200w Chemical Treatment
Description:
Ultrasound cell fragmentation is a process that utilizes the power
of ultrasound to destroy cell structures. By transmitting
high-frequency ultrasound into cells, the mechanical action of
ultrasound can cause the rupture of cell membranes and the release
of substances inside the cells.
Ultrasound damages cells by producing cavitation effects. During
the propagation of ultrasound, the pressure change of sound waves
can cause a change in the solubility of gas in the liquid, thereby
promoting the transformation of gas from a dissolved state to a
bubbly state. When the bubble continues to be affected by sound
waves, the pressure inside the bubble will continue to increase
until it ruptures and releases energy. The rupture and release of
energy from these bubbles can have a destructive effect on cells.
Parameters:
| Model | FSCH2011 |
| Name | 20Khz Experimental Liquid Ultrasonic Processing
|
| Frequency | 20Khz |
| Power | 1200w |
| Input Voltage | 220V±10%,50/60Hz |
| Emitter Materials | Titanium Alloy |
| Emitter Type | Focus Type |
| Durable Temperature | 0-60℃ |
| Application | Ultrasonic extraction, dispersion, emulsification, defoaming,
crushing, stirring |
Application:
1. Ultrasonic cell fragmentation can be used to extract various
substances within cells, including proteins, nucleic acids,
organelles, and metabolites. Here are some specific applications:
2. Protein extraction: Ultrasonic cell fragmentation can be used to
destroy cell membranes and release intracellular proteins. This is
very useful for protein research, enzyme activity analysis,
immunological research, and proteomics.
3. Nucleic acid extraction: Ultrasonic cell fragmentation can
destroy the nucleus and cell membrane, releasing nucleic acids
inside the cell. This is very important for the extraction of DNA
and RNA, as well as genetic research, gene expression analysis, and
so on.
4. Extracellular organelle extraction: Ultrasonic cell
fragmentation can destroy cell membranes and organelle membranes,
releasing intracellular organelles such as mitochondria and
endoplasmic reticulum. This is of great significance for the
separation and purification of organelles, functional research, and
the study of organelle diseases.
5. Metabolite extraction: Ultrasonic cell fragmentation can disrupt
cell structure and release intracellular metabolites such as
enzymes, metabolites, and signaling molecules. This has practical
value for metabolomics research, drug screening, and biosynthesis
research.
6. The advantages of ultrasonic cell fragmentation in the above
applications include simple operation, fast speed, large sample
processing capacity, and the ability to maintain the activity and
integrity of the sample.
Ultrasound Cell Crushing Disruption Efficiency Fragmentation 20Khz
1200w Chemical Treatment
