Life Science Products

FAQ on Ultrasonic Homogenization and Cell Disruption

What is the principle behind ultrasonic homogenization?

Ultrasonic homogenization works on the cavitation principle, where high-frequency sound waves create microscopic bubbles in a liquid medium. The collapse of these bubbles generates shear forces that effectively break down particles and disrupt cell structures.

How does ultrasonic homogenization compare to other methods?

Unlike mechanical or chemical methods, ultrasonic homogenization offers precise control over particle size distribution and cell disruption efficiency. It minimizes heat generation and preserves sensitive compounds, making it suitable for applications requiring accuracy and reproducibility.

Can ultrasonic homogenization be used for all sample types?

Ultrasonic homogenization is adaptable to a wide array of sample types, including biological tissues and synthetic compounds. Parameters like amplitude and duration may need optimization for specific applications to achieve desired results without damaging samples.

Is ultrasonic homogenization suitable for large-scale processing?

While primarily used for laboratory-scale applications, ultrasonic homogenization can be scaled up with appropriate equipment for larger processing needs. Industrial systems are available for extending the method to commercial production settings.

What safety precautions should be taken when using ultrasonic homogenizers?

When using ultrasonic homogenizers, it is important to wear personal protective equipment (PPE) such as gloves and eye protection to avoid exposure to aerosols and vibrations. Follow equipment guidelines for safe operation and maintenance.

Order Ultrasonic Homogenization Equipment from MSE Supplies

For research and industrial applications, consider MSE Supplies for ultrasonic homogenization equipment. Explore our special offers and programs to optimize your investment. Place your order online or request a quote. Our technical support team is available to assist with your inquiries and research needs. Contact us online or call (866) 673-2173.