Thorsten Emig
Research Professor of Physics
Lab PMMH • ESPCI Paris
My research
Most of my research consists in the application of concepts from statistical physics to a wide range of rather different systems, including the interplay between quantum and thermal fluctuations and geometry, both in equilibrium and out of equilibrium, disordered systems, superconductors, quantum magnets, and non-linear dynamics of granular systems. To explore these systems, I developed and combined analytical and numerical methods in statistical physics. I’m mostly interested in establishing and exploring new directions of research. My recent topics of interest are urban climate physics and the description of medical and physiological effects in sports, combining physics driven models, statistical analysis and harvesting information from big data collected by wearable devices.
A popular or at least more general account of some of my research can be found in the following articles:
G. Adam, T. Emig, Scaling approach to the physiology of distance running
British Milers Club News Vol.15 Issue 2 (2018).
A description of our work on urban climate for the general public, by Fui Lee Luk: C’est chaud une ville la nuit (French) / Why Some Cities Are Hotter than Others (English)
CNRS Le journal 16.03.2018 / CNRS News 03.09.2018
G. Bimonte, T. Emig, M. Kardar, M. Krüger, Non-equilibrium Fluctuational Quantum Electrodynamics: Heat Radiation, Heat Transfer, and Force
Annual Review of Condensed Matter Physics, Vol.8: 119-143 (March 2017)
Latest News
- Master 2 internship openingOutdoor Exercise and Air Quality under Real World Conditions: What can we learn from Wearable Sensors on Runners in Paris? It is easy to measure the number of heart beats per minute. Clearly, this number increases during physical activity with exercise intensity. But how regular is your heart beat during exercise? We have studied the…
- PhD position opening 2024Topic: QED fluctuations and fractal objects One of the most striking predictions of quantum physics is the interaction of the electromagnetic vacuum with atoms and macroscopic bodies. Spectacular manifes- tations of this interaction are Casimir forces. Enormous progress in force sensing techniques and the fabrication of nano-structures have highlighted impressively the practical relevance of this…