OpenFOAM for Chemical and Process Engineering
OpenFOAM is developed, maintained and redesigned for CFD simulation in Chemical and Process Engineering (see also “What is Process Engineering?”). It includes the following functionality for a variety of applications in this field of engineering.
- Interface-capturing Multiphase: Volume of fluid (VoF) representation of multiple, immiscible fluids, using the MULES algorithm to bound phase fraction, and specialised numerics to maintain a sharp interface. Simulates interface motion, breakup, viscous and inertial forces.
- Dispersed Multiphase: Euler-Euler simulation of dispersed phases, with sub-grid-scale interface modelling, heat and mass transfer. Suitable for bubble flows, steam injection and fluidised particle beds, etc.
- Particles: Fully coupled Lagrangian modelling of both sparse and dense particle flows. Simulation of spray combustion or cooling, dense fluidisation, separation and filtration devices, etc. Particle collision modelling either by fully resolved DPM, or Eulerian MPPIC method.
- Thermodynamic Modelling: Several thermodynamic and transport models, including real-gas effects, liquid and solid properties.
- Turbulence: Reynolds averaged models, stress closures, large eddy simulation, multiphase models and extensive boundary models.
- Heat Transfer: Conjugate heat transfer simulation of multiple fluid /solid regions. Natural convection. Boundary coupling and modelling.
- Reactions: Simulation of single and multi-phase turbulent reacting flows. A variety of combustion modelling and chemistry evaluation approaches, ODE integration, automatic tabulation and mechanism reduction.
- Mesh Generation: Block-structured and automatic hexahedral-dominant mesh generation for engineering CAD geometries.
- Mesh Motion: AMI and MRF for rotating geometries, e.g. mixers or impellers. Coupling with solid body motion. Adaptive refinement.
Process Engineering Consortium
OpenFOAM has been used for many years by many industrial companies, research institutes and academic organisations in chemical and process engineering. In 2012, the Process Engineering Consortium was founded by organisations who share a common interest in the sustainability, maintenance and development of OpenFOAM. The member organisations support OpenFOAM and the OpenFOAM Foundation through the following activities.
- Pooling resources to fund general code developments, repairs and redesign.
- Meeting annually to review the latest OpenFOAM development and maintenance work.
- Steering developments of new functionality.
- Cultivating collaborations between the OpenFOAM development team and modelling groups.
- Contributing example test cases, testing new functionality and providing feedback to developers.
Benefits to OpenFOAM
Developments and maintenance work that has been funded and supported by the Consortium include the following.
- Multiphase flows with reactions: solvers for both 2 compressible fluid phases and multiple phases with phase models that can represent multiple species and in-phase reactions, including boiling/condensation, turbulent dispersion, thermal wall functions, etc.
- Tabulation of dynamic adaptive chemistry (TDAC), with reaction reduction by in-situ adaptive tabulation (ISAT).
- Eddy dissipation concept (EDC) turbulent combustion model, including support for TDAC/ISAT for efficient chemistry.
- Tracking algorithm — for particles, streamlines, etc — was replaced by “barycentric” tracking, with significant improvment in robustness and efficiency.
- Discrete particle method (DPM) and multiphase particle in cell (MPPIC) methods for dense particle flows, e.g. fluidised beds.
Membership of the Process Consortium
The Process Engineering Consortium welcomes enquiries from organisations involved in chemical and process engineering. If you wish to enquire about membership, please complete the form below and a member of the Consortium will respond shortly. To demonstrate the enquiry is genuine, you must use a company email address.