Jérôme Jansen

Contact

Jérôme Jansen
Laboratoire I2M
Université de Bordeaux
Bat A11, Bureau 205,
Tél: 0540003418
351 cours de la libération
33405 Talence Cedex
jerome.jansen@u-bordeaux.fr

Positions

  • Assistant Professor at I2M and ENSMAC, since September 2023.
  • Post-doctoral researcher at I2M, from 2022/100 until 2023/08. Compressible subsonic modelling;
    • ANR ODEVIE Project, which aims to establish a link between the hydrodynamic flows of hydrothermal vents and the emergence of the prebiotic molecules that gave rise to life;
    • Supervisors: Arnaud Erriguible, Stéphane Glockner;
  • I2M representative on the Users’ Committee of the Aquitaine High-Performance Computing Centre (MCIA);

Research interests

  • Subsonic compressible flows;
  • Pressure/velocity coupling methods for Navier-Stokes equations;
  • Turbulence modelling (LES, RANS, FANS)
  • Validation and Verification
  • High Performance Computing

 

Papers

  • Boé, G., Jansen, J., Erriguible, A., Glockner, S., Cario, A., Marre, S., Tassaing, T., A millifluidic high-pressure thermal-gradient induced flow reactor  onitored by IR-Raman spectroscopies for multiphase hydrothermal vents chemistry, Chemical Engineering Journal,  DOI, version hal.
  • Jansen, J., Glockner, S., Sharma, D., Erriguible, A. Incremental pressure correction method for high-performance simulations of subsonic compressible flows, Computer Physics Communications, 2025, DOI, version hal.
  • Jansen, J., Escriva, X., Godeferd, F.S. et Feugier, P. In silicio experiment of intimal hyperplasia development in an axisymmetric idealized artery, Biomechanics and Modeling in Mechanobiology, 2023, DOI, version hal.
  • Jansen, J., Escriva, X., Godeferd, F.S. et Feugier, P. Multiscale bio-chemo-mechanical model of intimal hyperplasia, Biomechanics and Modeling in Mechanobiology, 2022, DOI version hal.

Communications

  • J. Jansen, S. Glockner, A. Erriguible, A projection based solver for subsonic compressible flows, applications to natural convection problems, NUMACH 2024: Numerical Methods for Challenging Problems, Nov. 13-15, 2024, Xiamen University, Xiamen, China.
  • J. Jansen, S. Glockner, D. Sharma, A. Erriguible, A novel pressure-based solver for subsonic compressible flows, ICCFD12, July 14-19, 2024, Kobe, Japan.

PhD students

  • V. Kowalski, from 2026/10/01, Modelling and simulation of turbulent flows in a supercritical multicomponent mixture brought to the pseudo-boiling point; funded by ED SPI of Bordeaux University.

Internship supervision

  • Y. Janson, M1 2025, Numerical simulation of supercritical hydrogen flow using Notus CFD software, Collaboration with M. Coquerelle, A. Boufkhad  (OP Mobility);
  • B. Keubou Wamba, M2 2025, Simulation and modelling of turbulent subsonic flows using the LES and DNS approaches, with S. Glockner, AAP BINP;
  • A. Derro, M1 2024, Study of supercritical H2 flow in a tank, Collaboration with M. Coquerelle (OP Mobility);
  • M. Charif, M1 2024,  Modelling and simulation of turbulent flows using the RANS-FANS approaches, with S. Glockner;
  • I. Ougil, M1 2024, Boundary conditions for high-order numerical schemes applied to fluid mechanics equations, with M. Coquerelle et S. Glockner;
  • L. Mézailles, M1 2024, Numerical simulation of compressible hydrothermal flows: coupling Notus with CoolProp, with A. Erriguible.

Gallery

 

 

TOTO
Rayleigh-Bénard sCO2 crossing the pseudo-boiling line (Ra=1e10). OSPRay volume rendering of the temperature boundary layers in fully developed turbulence, DNS of 3.6e9 cells computed on 48,640 Irene-Rome TGCC cores. Parallel visualization on 1,024 cores (VisIt).