Argonne National Laboratory Simulates an Acoustic Levitator
K. Suthar, C. Benmore
Argonne, IL, USA
As part of an industry that saves lives on a regular basis, pharmaceutical companies are in need of systems that can be used to deliver high-quality medicines. One method utilizes sound waves generated by an acoustic levitator with foam-coated transducers. Using the acoustic force from the sound waves, chemical particles are suspended between the transducers, where they can be mixed in a contaminant-free space.
Using COMSOL Multiphysics, Kamlesh Suthar and Chris Benmore of Argonne National Laboratory have simulated an acoustic levitator in order to find the best geometry for controlling how liquid droplets form between the transducers. They also investigated the changes in viscosity and surface tension and the effects that such parameters have on the droplet shapes. Studying the fluid-structure interaction (FSI), Suthar explored the sound pressure levels, material properties, and geometry options for the levitator. Simulating the acoustic levitator helped them to hone their design and achieve a new degree of control over the interactions between droplets, which will ultimately contribute to life-saving advancements for pharmaceuticals.
Suggested Stories
Life-Science-Unternehmen beschleunigt die biopharmazeutische Forschung und Entwicklung mit einer dedizierten CAE-Abteilung
Die Entwicklung von Biopharmazeutika ist aufgrund ihrer komplexen molekularen Struktur, der dafür erforderlichen ...
Increasing Productivity and Revenue with Computational Applications
HeatSinkSim is a simulation app created by the specialists at AltaSim Technologies that can help optimize heat sink ...
Defying Convention to Achieve Faster Signal and Simulation Speeds
As the demand grows for faster electronic devices in smaller packages, we need to develop optimized high-speed ...
Voxelgrids Pioneers Accessible MRI Technology Through Virtual Analysis
Voxelgrids Innovations developed India's first locally made MRI scanner, which was specifically designed to be more ...
