Laurent MONASSE
- Organization : ENPC
- Research unit : CERMICS
- Project : Fluid mechanics
- Phone : 33 (0)1 64 15 36 65
- Fax : 33 (0)1 64 15 35 86
- E-mail : laurent.monasse@enpc.fr
- Office : B302
- Mail :
CERMICS - ENPC
6 et 8 avenue Blaise Pascal
Cité Descartes - Champs sur Marne
77455 Marne la Vallée Cedex 2 (FRANCE)
Version française
I am currently researcher at CERMICS in the Ecole Nationale des Ponts et Chaussées.
Research themes:
- Discrete Elements, numerical time integration and links with mimetic schemes (collaboration with Christian Mariotti, Alexandre Ern and Jérôme Bonelle)
- Fluid-structure interaction (collaboration with Christian Mariotti, Christian Tenaud, Virginie Daru, PhD student Maria Adela Puscas)
- Applications of Riemannian geometry in structure mechanics (collaboration with Laurent Hauswirth, Olivier Baverel, Arthur Lebée, PhD student Yannick Masson, postdoc Hussein Nassar)
- Geometrical shock dynamics (collaboration with Nicolas Lardjane, PhD student Julien Ridoux)
Curriculum vitae:
During year 2011-2012, I had a post-doc position
in Prof. Charbel Farhat's group
in Stanford University, Aero/Astro department.
I defended my PhD thesis on October 10th, 2011 (manuscript).
PhD subject : Analysis of a Discrete Element Method for structure
dynamics and coupling with a compressible fluid flow method.
Advisors : Serge
Piperno, Virginie Daru
My CV (in pdf format)
Book:
C. Mariotti and L. Monasse, From general mechanics to discontinuity: Unified approach to elasticity, Presses des Ponts, 2011.
Publications:
- L. Monasse et C. Mariotti, An energy-preserving Discrete
Element Method for elastodynamics, ESAIM: Mathematical Modelling and
Numerical Analysis 46,
pp. 1527-1553, 2012, published version
- L. Monasse, V. Daru, C. Mariotti, S. Piperno, C. Tenaud, A
conservative coupling algorithm between a compressible flow
and a rigid body using an Embedded Boundary method, Journal
of Computational Physics 231, pp. 2977-2994,
2012, final
version
- L. Monasse, R. Monneau, Gradient entropy estimate and convergence
of a semi-explicit scheme for diagonal hyperbolic
systems, SIAM Journal on Numerical Analysis 52:6,
pp. 2792-2814, 2014, published
version
- M. A. Puscas, L. Monasse, A three-dimensional conservative
coupling method between an inviscid compressible flow and a
moving rigid solid body, SIAM Journal on Scientific
Computing 37, pp.884-909,
2015, accepted
version
- M. A. Puscas, L. Monasse, A. Ern, C. Tenaud, C. Mariotti,
V. Daru, A time semi-implicit scheme for the energy-balanced
coupling of a shocked fluid flow with a deformable structure,
Journal of Computational Physics 296, pp. 241-262,
2015, final
version
- M. A. Puscas, L. Monasse, A. Ern, C. Tenaud, C. Mariotti, A
conservative embedded boundary method for an inviscid compressible
flow coupled with a fragmenting structure, International
Journal for Numerical methods in Engineering 103(13),
pp. 970-995, 2015, pre-print
- Y. Masson, L. Monasse, Existence of global Chebyshev nets on
surfaces of absolute Gaussian curvature less than 2π, Journal
of Geometry 108(1), pp.25-32, 2017, doi:10.1007/s00022-016-0319-1, pre-print
- T. Jourdan, G. Stoltz, F. Legoll, L. Monasse, An accurate scheme
to solve cluster dynamics equations using a Fokker-Planck
approach, Computer Physics Communications 207, pp. 170-178,
2016, pre-print.
- H. Nassar, A. Lebée, L. Monasse, Curvature, metric and
parametrization of origami tessellations: Theory and application to
the eggbox pattern, Proceedings of the Royal Society A 473, 2017 doi:10.1098/rspa.2016.0705, pre-print.
Pre-prints:
- J. Ridoux, N. Lardjane, L. Monasse, F. Coulouvrat, Comparison of
Geometrical Shock Dynamics and Kinematic models for shock wave
propagation, submitted, pre-print, 2017.
Simulation codes:
- Mka3D : simulation code for elastic solids using a Discrete Element method (academic version of CeaMka3d©, developed at CEA by Christian Mariotti and Ludovic Aubry).
- CELIA3D : fluid-structure interaction simulation code between a compressible fluid and a deformable structure using a cut-cell immersed boundary method, developed with Adela Puscas
Links:
Numerical results
Rigid cylinder hit by a Mach 3 shock :
Double Mach reflection on a ramp :
Mach 3 wind tunnel with a step :
Flapping doors in a Mach 3 flow :