mmg banner
  • Home
  • Install
  • Tutorials
  • Documentation
  • Team
  • Consortium
  • Publications
  • Gallery
  • Events
  • Contributing
  • GitHub

Gallery¶

  • Topology optimization of thermal fluid-structure systems using body-fitted meshes and parallel computing

  • Body-fitted topology optimization of 2D and 3D fluid-to-fluid heat exchangers

  • Numerical shape and topology optimization of regions supporting the boundary conditions of a physical problem

  • Shape optimization of a bridge

  • Shape optimization of an electric mast

  • Structural optimization of a cantilever under torsion

  • Shape optimization for a heat conduction problem

  • Shape optimization of a suspension using PISCO software

  • Mesh generation from invalid surface using a level-set method

  • Water saturation in several fracture networks scenarii using fracture insertion by level-set discretiztion

  • Pressure swirl atomizer in the pilot stage of injection system with Yales2

  • PRECCINSTA burner with Yales2

  • Adaptative remeshing of 2D fluid channel with sphere with Kratos Multiphysics solver

  • Steady laminar flow around a delta wing with a sharp leading edge

  • h-adaptive RANS and hybrid RANS/LES simulations of a nozzle with a DG method and with the CODA CFD software

This section presents some results obtained with mmg and, when available, the scientific publications associated with these results.


Shape optimization


Topology optimization of thermal fluid-structure systems using body-fitted meshes and parallel computing¶

Florian Feppon, Grégoire Allaire, Charles Dapogny, Pierre Jolivet


Body-fitted topology optimization of 2D and 3D fluid-to-fluid heat exchangers¶

Florian Feppon, Grégoire Allaire, Charles Dapogny, Pierre Jolivet


Numerical shape and topology optimization of regions supporting the boundary conditions of a physical problem¶

Eric Bonnetier, Carlos Brito-Pacheco, Charles Dapogny, Rafael Estevez

Top view of the optimized absorbent regions on the surface of a sound-hard obstacle for acoustic cloaking

Bottom view of the optimized absorbent regions on the surface of a sound-hard obstacle for acoustic cloaking

Optimization of the repartition of the cathode and anode regions on the boundary of a direct current electroosmotic mixer


Shape optimization of a bridge¶

Charles Dapogny

_images/bridge3d.gif

Shape optimization of an electric mast¶

Charles Dapogny

_images/mast3d.gif

Structural optimization of a cantilever under torsion¶

Florian Feppon


Shape optimization for a heat conduction problem¶

Florian Feppon


Shape optimization of a suspension using PISCO software¶

Chiara Nardoni

_images/pisco1.png _images/pisco2.png

Level-set discretization


Mesh generation from invalid surface using a level-set method¶

(see more)

Algiane Froehly

_images/sagrada1.png

Fourth iteration of mesh adaptation over the distance function¶

_images/sagrada2.png

Cut through external volume of the final mesh obtained by the discretization of the 0 isovalue of the distance function computed over the adapted mesh¶


Water saturation in several fracture networks scenarii using fracture insertion by level-set discretiztion¶

Capucine Legentil

_images/flow.gif

Mesh adaptation


Pressure swirl atomizer in the pilot stage of injection system with Yales2¶

  1. Bénard, G. Lartigue, R. Mercier, V. Moureau


PRECCINSTA burner with Yales2¶

  1. Bénard, G. Lartigue, R. Mercier, V. Moureau


Adaptative remeshing of 2D fluid channel with sphere with Kratos Multiphysics solver¶

Vicente Mataix Ferrándiz

_images/channel.gif

Steady laminar flow around a delta wing with a sharp leading edge¶

Luca Cirrottola, Marco Lorini

_images/wing1.png

Slices of the Mach number and adapted mesh¶

_images/wing2.png

Flow and mesh at trailing edge¶


h-adaptive RANS and hybrid RANS/LES simulations of a nozzle with a DG method and with the CODA CFD software¶

Francesca Basile, Jean-Baptiste Chapelier, Romain Laraufie

_images/rans1.png

Mesh of the PPRIME nozzle after 5 iter of RANS adaptation¶

_images/rans2.png

Mach field on initial (top) and final adapted mesh (middle) using RANS equations. Instantaneous Mach number on final adapted mesh using hybrid RANS/LES equations (bottom).¶

© Copyright 2024. Created using Sphinx 8.2.3.