
Explore statistical models on random regular graphs, focusing on matrix-forest theorem, Parisi-Sourlas trick, and applications to 2D quantum gravity and spanning forests.

Explorez la dualité holographique entre le modèle vectoriel O(N) libre et la gravité de spin supérieur, en examinant le spectre et la construction de la théorie gravitationnelle.

Explorez la dualité holographique entre le modèle vectoriel O(N) libre et la gravité de spin supérieur, en examinant le spectre et la construction de la théorie gravitationnelle.

Explore topological matter in quantum gases, examining prospects and challenges with expert Sylvain Nascimbène from Collège de France, Paris.

Explore advanced concepts in fermion physics, from SU(2) to SU(N) systems with spin-orbit coupling, delving into issues beyond charge and spin density waves.

Explore classical and quantum spin liquids, delving into theoretical physics concepts with expert Sylvain Capponi from Laboratoire de physique théorique Toulouse.

Explorez le transport quantique dans les gaz de Fermi fortement corrélés avec Tilman Enss de l'Université de Heidelberg.

Explore strongly interacting Fermi gases and zero-range interactions in quantum physics, delving into advanced concepts and theoretical frameworks.

Explore dipolar atomic gases and supersolids, delving into their properties and behavior in quantum systems. Learn about cutting-edge research in this fascinating field of physics.

Explore quantum noise effects in gravitational-wave detection, focusing on interferometric techniques and their implications for advanced detector designs.

Explore the fascinating world of primordial nano black holes and their implications for gravitational wave research with expert Antonio Riotto.

Explore minimalism in modified gravity theories, examining their implications for gravitational waves and cosmology.

Explore experimental challenges affecting ground-based detectors' astrophysical reach in gravitational wave research, presented by Gabriela González from Louisiana State University.

Explore gravitational wave detection techniques, focusing on LIGO and LISA projects, with insights from MIT expert David Shoemaker.

Explore advanced concepts in gravitational wave detection, including interferometer design, noise sources, and data analysis techniques for LIGO and LISA projects.

Explore advanced concepts in modified gravity theories, focusing on alternative explanations for gravitational phenomena beyond general relativity.

Explore modified gravity theories and their implications for understanding the universe's fundamental forces and structure.

Explore open mathematical challenges related to charged quantum particles, delving into complex theoretical concepts and unsolved problems in quantum physics.

Explore the intricacies of fractional quantum Hall effect in multicomponent systems, covering both established and emerging concepts in quantum physics.

Explore quantum metrology and metastability in input-output systems, focusing on parameter estimation, continuous measurements, and precision limits for open quantum dynamics.

Explore Density Functional Theory fundamentals and applications using Quantum Espresso on nanoHUB. Learn to compute electronic structures, densities of state, total energies, and bulk modulus for materials.