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Composite Material Nanoparticles Uniformly Dispersed By Ultrasonic
Waves
Description:
Ultrasonic uniform dispersion of composite material nanoparticles
is the use of ultrasonic vibration to disperse aggregated or
precipitated nanoparticles in a solvent. Through the action of
sound waves, the interaction forces between particles are overcome,
thereby achieving uniform dispersion. Uniform dispersion of
nanoparticles is crucial for material performance in fields such as
drug delivery, coatings, and composite materials. Appropriate
solvents can improve the dispersion stability and reaction
efficiency of nanoparticles.
Ultrasonic technology provides an efficient and environmentally
friendly solution for the synthesis and dispersion of
nanomaterials. By adjusting the parameters of ultrasound, the
morphology, size, and dispersion of nanomaterials can be controlled
to meet the needs of different applications.
Parameters:
Model | FSD-2010-GL |
Name | 20Khz Experimental Liquid Ultrasonic Processing |
Frequency | 20Khz |
Power | 1000w |
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 |
Effects of High Power :
1. Particle aggregation
Impact: Excessive ultrasonic power may lead to collisions and
aggregation between nanoparticles, forming larger particles and
reducing the uniformity and dispersion of the material.
2. Changes in particle morphology
Impact: High power may cause changes in the morphology of
particles, such as transitioning from spherical to irregular
shapes, affecting the physical and chemical properties of the
material.
3. Thermal effect
Impact: The high power of ultrasound can cause an increase in the
temperature of the reaction system. Excessive temperature may lead
to thermal degradation or side reactions of the reactants,
resulting in a decrease in product purity.
4. Enhanced cavitation effect
Impact: Although moderate cavitation effect helps with the
reaction, excessive cavitation effect can lead to severe local
impact, which may damage the nanoparticles or affect their
structure.
5. Uncontrolled chemical reaction rate
Impact: Excessive power may cause the reaction rate to be too fast,
making it difficult to control the products of the reaction and
potentially producing unwanted by-products.
6. Equipment damage
Impact: High power ultrasound may cause equipment overheating or
damage, shortening the service life of the equipment.
Composite Material Nanoparticles Uniformly Dispersed By Ultrasonic
Waves