Computational Fluid Dynamics (CFD) Software
Build advanced fluid models in minutes, predict real-time dynamics with precision, and solve complex fluid flow problems faster with M-Star CFD® software.
The simple graphical interface and minimal user specification in M-Star CFD software means most users will be trained to use the tool in a matter of hours.
Focus on defining your physical modeling parameters right away with no volume meshing in the M-Star workflow.
M-Star CFD pairs modern algorithms with modern GPU architectures providing faster simulation times critical for modeling processes that take seconds, minutes, or hours of runtime.
Complete simulations in a fraction of the time of traditional modeling approaches and without needing expensive, specialized servers or large CPU clusters.
M-Star CFD is equipped with integrated post-processing tools that allow for real-time data analysis and photorealistic rendering, facilitating a deeper understanding of simulation results.
Generate predictions that are functionally indistinguishable from measured data and investigate previously impractical problems.
Particle-laden systems often require the simultaneous solution of the fluid field, particle fields, and interactions between the two phases. The GPU-based implementation of M-Star CFD software makes large-scale simulations of such systems accessible and practical.
Most biologic processes are developed in lab-scale, tabletop bioreactors with small operating volumes. M-Star helps you build, run, and post-process simulations for real-world, production-sized bioreactors that can hold up to tens-of-thousands of liters.
Mixing processes in multi-fluid systems present more complicated competition between fluid inertia and buoyancy. M-Star CFD software helps you model and predict real-time fluid mechanics with greater speed and fidelity than ever before.
Free-surface systems are topologically complex and almost always time-varying. The transient, high-resolution simulation accessible using M-Star CFD software provides detailed insights into the sloshing, vortexing, and rocking that characterize these systems.