• Computing demanding flows with HPC Supercomputers or Massively parallel devices (GPU), using advanced parallel solvers.
• Compressible & incompressible fluid flows simulations for general aerodynamic studies.
• LES based turbulence modeling. Advanced wall modelling techniques for high Reynolds wall flows.
• Multi-phase, multi-fluid and free surface flows.
• Immersed boundary methodologies to deal with complex moving bodies in the flow domain.
• Moving and sliding meshes to deal with hibirid static/dynamic domains.
• Adaptive mesh refinement
• Fluid structure interactions.
• Computational aeroacoustics.
• Reactive flows, combustion, heat transfer and radiation
• Non-Newtonian fluids

All these numerical techniques are suitable to deal with engineering problems related to a wide reange of industrial areas such as aeronautics, automotive, HVAC & ventilation, Wind Power, Energy Efficiency in buildings, Concentrated Solar Power, Thermal Storage systems, Domestic refrigeration, etc…