Group “Statistical Physics and Condensed Matter”
The activities of the “Statistical Physics and Complex Systems” team cover a wide spectrum. The first research direction concerns rigorous statistical mechanics, in particular the study of phase transitions in exactly solvable cases and/or from a geometric perspective. The second direction concerns the statistical physics of open quantum systems (out of equilibrium), and the development of models and analytical tools to study non-equilibrium steady states. The third direction focuses on the statistical physics of complex systems and complex networks, from the study of their structure to the study of dynamical processes on networks, and is pioneering in the study of temporal networks. Since the network paradigm can be used to describe many systems of different origins and natures, our research is interdisciplinary, including interactions with the social sciences, epidemiology, computer science, and neuroscience.
The team also participates in the Convergence Institute CENTURI. Since 2019 it has hosted three PIs partially funded by CENTURI, whose research topics concern collective effects and self-organization in living systems, cell mechanics, and neuroscience. They interact with experimental groups at IBDM and INMED.
The methods used by the team members range from rigorous mathematical tools to numerical simulations and the analysis of empirical data, covering the full range of standard approximation tools in statistical physics.
| AGOSTINELLI | Cosimo | Ph.D. | Contact | |
| ASCH | Joachim | Research teacher | +33.4.91.26.95.20 | Contact |
| ASCHBACHER | Walter | Research teacher | +33.4.91.26.95.16 | Contact |
| BARRAT | Alain | Researcher Director | +33.4.91.26.95.40 | Contact |
| BREIER | Patrick | Visitor | Contact | |
| ESTAVOYER | Maxime | Post Ph.D. | Contact | |
| GAMBAUDO | Juliette | Ph.D. | Contact | |
| GANDOLFO | Daniel | Research teacher | +33.4.91.26.95.10 | Contact |
| GENOIS | Mathieu | Research teacher Team leader « Statistical Physics and Complex Systems » | +33.4.91.26.95.42 | Contact |
| IANNELLO | Ludovico | Ph.D. | Contact | |
| MANCASTROPPA | Marco | Post Ph.D. | Contact | |
| MAURIAL | Gabriel | Ph.D. | Contact | |
| MERKEL | Matthias | Researcher | +33.4.91.26.95.12 | Contact |
| NATH | Sujit-Kumar | Post Ph.D. | Contact | |
| PEREZ | Pablo | Ph.D. | Contact | |
| PILLET | Claude-Alain | Research teacher | +33.4.91.26.95.32 | Contact |
| PLOTZE | Yan | Ph.D. | Contact | |
| QAZI | Saaheelur-Rahaman | Ph.D. | Contact | |
| ROUAULT | Herve | Researcher | +33.4.91.26.95.13 | Contact |
| ROULEUX | Michel | Research teacher | +33.4.91.26.97.97 | Contact |
| RUPPRECHT | Jean-Francois | Researcher | +33.4.91.26.95.14 | Contact |
| SABY | Florian | Ph.D. | Contact | |
| SHLOSMAN | Senya | Researcher emeritus | +33.4.91.26.95.31 | Contact |
| VIEIRA-MENDES | Toni | Post Ph.D. | Contact | |
| VINZE | Prathmesh | Post Ph.D. | Contact | |
| WANG | Michael | Post Ph.D. | Contact | |
| ZETT | Lukas | Ph.D. | Contact |
A model of 3D confluent tissue behaves as an under- constrained glass
2026
Emerging activity temporal hypergraph: A model for generating realistic time-varying hypergraphs
2026
Higher-order dissimilarity measures for hypergraph comparison
2026
A non-invasive approach for understanding localized force generation in 3D tissues
2026
Multilayer network science: theory, methods, and applications
Journal of Complex Networks, 2026, 14 (2), (10.1093/comnet/cnag007)
Entropy Maximization and Weak Gibbsianity of Quasi-Free Fermionic States
2026
Adhesion differentials control the rheology of biomimetic emulsions
Biophysical Journal, 2026, 125 (7), pp.1686-1700. (10.1016/j.bpj.2026.03.004)
Non-linear visco-elasto-plastic rheology of a viscous vertex model
2026
Adaptive behaviors neutralize bistable explosive transitions in higher-order contagion
2026
Higher-order adaptive behaviors outperform pairwise strategies in mitigating contagion dynamics
2026
