2173 match your search

Tablet Mixing and Coating
DEM simulation showing residence time
Pill Coating Simulation
Pill coating DEM model for evaluation of residence time and coating thickness of particles.
Rotating Drum Mixing
Particle flow modeling with DEM minimzes cost and time of traditional prototype building and testing thus shortening product design cycles.
Pill Coating Animation
DEM model of a pill coating animation showing particle coating thickness
The University of Central Florida used STAR-CCM+ to simulate the circulatory system of newborn. Here is shown the velocity magnitude of the blood inside the aorta.
Maximum wall shear stress obtained during evaluation of rest vs. exercise for AAA diseased patients using STAR-CCM+ on patient-specific geometry. Geometry provided by Computational Clinical Modeling (Chris Ebeling).
Dissected aorta polyhedral mesh, Geometry Provided by the Methodist DeBakey Heart and Vascular Center, Houston (Dr. Christof Karmonik, Dr. Mark Davies, Dr. Alan Lumsden, Dr. Jean Bismuth)
Venturi with air entrainment (VIASYS Healthcare) : Using STAR-CCM+, metrics of different designs can be evaluated to by predicting the mass of entrained air and pressure drop.
Modeling the flow through nasal passages to determine the required surgical procedure using STAR-CCM+ (model provided by Lionel Meister, University of Marseille)
With surging fuel prices and more people taking to the skies, aircraft companies have been forced to rethink their approach to the design of the next-generation aircraft. To reduce fuel consumption, increasingly lighter and more flexible composite structures are being introduced, and innovative, unconventional designs resulting in higher lift-to-drag ratios are on the table. With such radical changes to the structure and aerodynamic shape of aircraft, the use of high-fidelity computational aeroelasticity early in the design process will be essential to meet tomorrow’s design challenges.