General Modeling Specifications
FLUENT is the CFD solver of choice for complex flows ranging from incompressible (low subsonic) to mildly compressible (transonic) to highly compressible (supersonic and hypersonic) flows. Providing multiple choices of solver options, combined with a convergence-enhancing multigrid method, FLUENT delivers optimum solution efficiency and accuracy for a wide range of speed regimes. The wealth of physical models in FLUENT allows you to accurately predict laminar and turbulent flows, various modes of heat transfer, chemical reactions, multiphase flows, and other phenomena with complete mesh flexibility and solution-based mesh adaption.
Request the detailed FLUENT Specification Sheet
- 2D planar, 2D axisymmetric, 2D axisymmetric with swirl, and 3D flows
- Unstructured mesh (triangle and quadrilateral elements for 2D; tetrahedral, hexahedral, prism and pyramid elements for 3D)
- Steady-state or transient flows
- All speed regimes (low subsonic, transonic, supersonic, and hypersonic flows)
- Inviscid, laminar, and turbulent flows
- Newtonian or non-Newtonian flows
- Full range of turbulence models including k-epsilon, k-omega, RSM, DES, and LES
- Heat transfer including forced, natural, and mixed convection; conjugate (solid/fluid) heat transfer; and radiation, including solar loading
- Chemical species mixing and reaction, including homogeneous and heterogeneous combustion models and surface deposition/reaction models
- Free surface and multiphase models, including heat transfer and reactions
- Lagrangian trajectory calculation for dispersed phase (particles/droplets/bubbles), including spray and wall film models
- Phase change model for melting/solidification applications, cavitation model and wet steam model
- Porous media with non-isotropic permeability, inertial resistance, solid heat conduction, and option to compute interstitial velocities
- Lumped parameter models for fans, radiators, and heat exchangers
- Dynamic mesh capability for modeling flow around moving objects
- Inertial (stationary) or non-inertial (rotating or accelerating) reference frames
- Multiple reference frame (MRF) and sliding mesh options
- Mixing-plane model for rotor-stator interactions
- Comprehensive suite of aeroacoustics modeling tools
- Volumetric sources of mass, momentum, heat, and chemical species
- Material property database
- Dynamic (two-way) coupling with GT-Power and WAVE
- Add-on modules for fuel cells, magnetohydrodynamics, and continuous fiber modeling
- Extensive customization capability via user-defined functions

