Motion, Mesh Adaption, and Mapping
- Faster sliding mesh
interfaces
-
Faster and more scalable interface calculation and smaller memory footprint
- Efficient use of computational resources
- Significantly better scalability on higher core counts
- Applications: Unsteady drag prediction of rotating automotive wheels, electric motor cooling, VTM fan, mixing vessels
- The "Closed Adjacent Cells" option is not available for the MBI
-
- Trim with blade element
method during unsteady simulation
-
Faster and more efficient unsteady simulation of rotorcraft by allowing trimming with blade element method
- Support for unsteady and steady blade element method
- Shortened workflow by removing the need for re-runs with adjusted trim angles
- Faster turnaround time compared to rigid body motion
- Applications: rotor-body interference investigation, engine inlet design
-
- Anisotropic mesh refinement
in the boundary layer during AMR
- More efficient
boundary layer capturing by allowing anisotropic refinement of prism layer
during AMR
- Support for isotropic, tangential, normal, as well as criterion-based refinement
- Lower number of cells and reduced simulation time
- More efficient
boundary layer capturing by allowing anisotropic refinement of prism layer
during AMR
- Coordinate system motion
management
- Managing relative
motion of coordinate systems through definition of how they should follow a
body (e.g., a ship)
- Simplified post processing visualization
- Streamlined management of Derived parts’ (e.g., of a ship) motion
- Managing relative
motion of coordinate systems through definition of how they should follow a
body (e.g., a ship)