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Ultrasonic Apparatus Nanoparticles Dispersion System
Description:
The application of ultrasonic devices in nanoparticle dispersion is
becoming increasingly widespread. With fast dispersion speed,
ultrasonic devices can effectively disperse nanoparticles uniformly
in liquid media in a short period of time without the need for
large amounts of chemical additives, greatly reducing the impact on
the environment.
The ultrasonic device nanoparticle dispersion system is an
effective tool for achieving uniform dispersion of nanomaterials.
By reasonable operation and parameter adjustment, the dispersion
effect of nanoparticles can be significantly improved to meet the
needs of different application fields.
Parameters:
Model | FSD-4005-GL |
Name | 40Khz Ultrasonic Cell Fragmentation |
Frequency | 40Khz |
Power | 500w |
Input Voltage | 220V±10%,50/60Hz |
Emitter Materials | Titanium Alloy |
Emitter Type | Focus Type |
Durable Temperature | 0-80℃ |
Component Accessories | Ultrasonic Generator, Ultrasonic Vibration System, Ultrasonic Horn |
Parameters Difference :
There are significant differences in the ultrasonic dispersion parameters of different types of nanoparticles, mainly reflected in the following aspects:
1. Particle size and shape
Larger particle size nanoparticles:
A lower frequency (such as 20 kHz -50 kHz) and higher power are
required to generate sufficient energy to break the aggregation.
Example: Nano metal particles, nano oxides.
Smaller particle size nanoparticles:
Usually, higher frequencies (such as 100 kHz -1 MHz) are used to
achieve more uniform dispersion.
Examples: Carbon nanotubes, nano silicon.
2. Material characteristics
Metal nanoparticles:
For metal nanoparticles, the ultrasonic treatment time is usually
shorter to prevent oxidation.
The frequency is generally between 20 kHz and 100 kHz.
Polymer nanoparticles:
Lower power and longer processing time may be required to avoid
thermal damage.
The frequency is usually between 20 kHz and 50 kHz.
Ceramic nanoparticles:
Usually requires higher power and longer time to ensure sufficient
dispersion.
The frequency is generally between 20 kHz and 100 kHz.
3. Liquid medium
Water based medium:
For water-soluble nanoparticles, water is usually used as the
dispersion medium, and the frequency and power can be moderate.
Organic solvents:
For hydrophobic or organically soluble nanoparticles, it may be
necessary to choose a suitable organic solvent, and the selection
of frequency and power should be adjusted according to the
characteristics of the solvent.
4. Temperature sensitivity
Thermal sensitive material:
For some thermosensitive nanoparticles, lower power and shorter
processing time are required to prevent thermal degradation.
5. Use of dispersants
Whether there is a dispersant:
When using dispersants, the processing parameters may need to be
adjusted to improve the dispersion effect.
The type and concentration of dispersants can also affect the
efficiency of ultrasonic treatment.
6. Application requirements
Specific applications:
Different applications, such as biomedical, coatings, and materials
science, have different requirements for dispersion uniformity and
particle size distribution. Therefore, it is necessary to adjust
the parameters of ultrasonic dispersion to meet specific needs.
Ultrasonic Apparatus Nanoparticles Dispersion System