Statistical physics team at LPTMC
TEAM MEMBERS IN COLLABORATION WITH MAJULAB
- Pascal Viot (Full Professor, SU)
- Vincent Mancois (PhD student, SU-NTU cotutelle programme,)
Scientific activities with MajuLab
The Statistical physics team at LPTMC (https://www.lpens.ens.psl.eu/nano-optique/?lang=en) with Pascal Viot has developed a collaboration with members of MajuLab:
- Prof. David Wilkowski Centre for quantum technologies NTU-SPMS (https://www.quantumlah.org/research/group/davidw)
- Research Fellow Kwong Chang Chi NTU-SMPS (https://www.quantumlah.org/people/profile/changchi).
The scientific activities in collaboration with MajuLab mainly focus on:
- Cold atom systems can represent self-gravitating systems at a nanometric scale and permit experimental studies, which is not possible for systems in gravitational interaction at the astrophysical scale.
Why and how this collaboration?
In two dimensions, a system of self-gravitating particles is expected to collapse and to form a singularity in finite time below a critical temperature Tc. Pascal Viot and David Wilkowski propose to investigate experimentally a quasi-two-dimensional cloud of cold neutral atoms in interaction with two pairs of perpendicular counterpropagating quasi-resonant laser beams, in order to look for a signature of this ideal phase transition. They received a SU-PhD Grant for supporting the project. David Wilkowski first realized an experiment for one-dimensional self-gravitating system some years ago and this international mobility project was perfectly in line with the institutional agreements between SU, NTU and MajuLab (CNRS).
Common publications with MajuLab
- Two-temperature Brownian dynamics of a particle in a confining potential Vincent Mancois, Bruno Marcos, Pascal Viot, & David Wilkowski, Phys. Rev. E, 97, 052121, (2018), https://doi.org/10.1103/PhysRevE.97.052121
- Anisotropic long-range interaction investigated with cold atoms, Vincent Mancois,Julien Barré, Chang Chi Kwong, Alain Olivetti, Pascal Viot, and David Wilkowski Rev. A. 102013311 (2020), https://doi.org/10.1103/PhysRevA.102.013311