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Contents

  1. QGDsolver library brief
  2. QGDsolver installation
  3. Meeting points for users and developers
  4. Published papers related to QGDsolver technology
  5. For citation

QGDsolver library brief

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QGDsolver is OpenFOAM framework for simulation of fluid flows using regularized (QGD/QHD) equations approach. It contains library for approximation of partial derivatives at face centers of unstructured grids and a set of OpenFOAM solvers:

  1. QGDFoam - solver for compressible viscous perfect gas flows in a wide Mach number range - from 0 to infinity
  2. QHDFoam - solver for incompressible viscous fluid flows with buoyancy force
  3. particlesQGDFOam - solver for compressible viscous perfect gas flows in a wide Mach number range with particles - from 0 to infinity
  4. particlesQHDFoam - solver for incompressible viscous fluid flows with buoyancy force with particles
  5. SRFQHDFoam - solver for incompressible viscous fluid flows in rotating frame of reference with buoyancy force
  6. QHDDyMFoam - solver for incompressible viscous fluid flows in domains with deforming boundary and with buoyancy force
  7. interQHDFoam - solver for incompressible 2-phase viscous fluid flows with buoyancy force and surface tension
  8. reactingLagrangianQGDFoam - solver for reacting multicomponent compressible viscous perfect gas flows in a wide Mach number range with particles - from 0 to infinity
  9. scalarTransportQHDFoam - solver for scalar transport equation to demonstrate the very basics of QGD/QHD equations principles
  10. rhoQGDFoam - solver for compressible viscous flow with arbitrary equation of state (EoS) and in a wide Mach number range - from 0 to infinity

Brief description of the framework is presented here: https://github.com/unicfdlab/QGDsolver/blob/master/qgd-framework-2020-final.pdf

QGDsolver installation

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The repository is organized as follows:

  • master branch is used for the Doxygen-generated documents (not finished yet) and last test report
  • Next branches of the library correspond to OpenFOAM+ versions as follows:
  • other branches are for internal use and are not intended for compilation

Source code of releases for OpenFOAM+ are stored in releases section, the naming conventions are the same as for repository's branches

To compile sources, run ./Allwmake

To clean sources, run ./Allwclean

To change libraries and binaries destination, run script SwitchDest: a) ./SwitchDest USER - this will set installation paths to $FOAM_USER_LIBBIN and $FOAM_USER_APPBIN; b) run ./SwitchDest - this will set installation paths to $FOAM_LIBBIN and $FOAM_APPBIN

Meeting points for users and developers

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Unfinished, but refining Doxygen documentation: https://unicfdlab.github.io/QGDsolver/html/index.html

In case of questions, please, write to:

Published papers related to QGDsolver technology

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Title Description
On a new method for regularizing equations two phase incompressible fluid (in Russian): Article Filament visualization
The Eulerian–Lagrangian Approach for the Numerical Investigation of an Acoustic Field Generated by a High-Speed Gas-Droplet Flow Jet with particles Logo: Article
Simulation of transonic low-Reynolds jets using quasi-gas dynamics equations: Article QGDFoam vs experiment
Prediction of the Free Jet Noise Using Quasi-gas Dynamic Equations and Acoustic Analogy: Article QGDFoam instant jet velocities
Numerical simulation of disk pump problems using OpenFOAM implementation of regularized equations (in Russian): Article QHDFoam fluid flow in disk pump
Numerical modelling of hydrodynamical structures using quasi-gasdynamics algrotithms and its implementation in OpenFOAM (in Russian): PhD Thesis Accreation disk
Biharmonic attractors of internal waves (in Russian): PhD Thesis A scheme of biharmonic attractor computed with QHDFoam
Development of the New OpenFOAM Solver for Shallow Water Simulation Using QGD/QHD Library: Presentation Streamlines

For citation

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If you have found these library/solvers useful, please cite or refer to

  • DOI

  • M. V. Kraposhin, E. V. Smirnova, T. G. Elizarova, and M. A. Istomina Development of a new OpenFOAM solver using regularized gas dynamic equations // Computers & Fluids 166, 163–175 (2018). https://doi.org/10.1016/j.compfluid.2018.02.010

  • M. Kraposhin, D. Ryazanov, T. Elizarova Numerical algorithm based on regularized equations for incompressible flow modeling and its implementation in OpenFOAM // Computer Physics Communications (2021). https://doi.org/10.1016/j.cpc.2021.108216