
Explore interactions induced by fluctuating electromagnetic fields, from dispersion forces to blackbody radiation effects. Learn about light-matter interactions and potential applications in colloidal systems.

Explore collective cold-atom interactions and their astrophysical applications through experiments on light scattering, random lasing, and long-range forces in atomic vapors.

Explore the physical processes shaping cosmic structures, from large-scale web formations to galaxy and star evolution, examining gravitational forces, hydrodynamics, and radiative effects.

Explore MaZe, a novel approach for simulating adiabatic systems in physics. Learn about its applications in first principles simulations, polarizable systems, and ionic transport studies.

Explore phase transitions and self-assembly in active matter systems, from bird flocks to nanorobots. Analyze statistical models, emergent behaviors, and out-of-equilibrium dynamics in collective motion phenomena.

Explore a nonsmooth approach to Einstein's gravity theory, focusing on reformulating curvature concepts and developing a synthetic null energy condition for Lorentzian spaces.

Explore Lorentzian synthetic spaces, optimal transport theory, and timelike Ricci curvature bounds to characterize Einstein's equations in non-smooth spaces, with applications to gravity.

Explore global timelike curvature bounds in Lorentzian length spaces, examining Alexandrov's Patchwork analogue and Bonnet-Myers theorem applications for spacetime geometry.

Explore Lorentzian space convergence, Gromov reconstruction theorem, and measured Lorentz-Gromov-Hausdorff convergence in nonsmooth general relativity. Gain insights into isomorphy of measured Lorentzian spaces.

Explore generalizations of classical relativity theorems, focusing on averaged energy conditions and their implications for singularity and area theorems in semiclassical gravity.

Explore abstract formulation of junction conditions for matching spacetimes, focusing on null shells and their gravitational/matter content. Analyze multiple matchings and cut-and-paste scenarios.

Explore a new spacetime geometry incorporating quantum nonlocality into general relativity, examining implications for spin-1/2 fermions and the Born rule.

Explore causal diamonds in Mathematical Relativity, examining their geometry and geodesic structure when endowed with Hausdorff distance, and their implications for metric convergence stability.

Explore new PDE-based approaches to fundamental results in mathematical general relativity, including positive mass theorem and Riemannian Penrose inequality.

Explore the null distance concept in spacetime, its definition, examples, and relationship to metric space structures.

Explore global hyperbolicity in spacetime geometry through null distance, encoding causal information in metric space structures and characterizing completeness.

Explore Lorentzian pre-length spaces, null distance, and midpoint properties to construct distance realizers between timelike related points in non-regular spacetime geometry.

Explore Kelvin-Stuart vortices in fluid mechanics, plasma physics, and planetary rings. Analyze stability, applications, and magnetic island equilibria in 2D ideal MHD equations.

Explore stochastic approaches in ocean modeling, including Monte-Carlo methods, perturbed initial conditions, and stochastic boundary conditions and dissipation operators for improved numerical simulations.

Explore Kelvin-Stuart vortices' stability in fluid mechanics, plasma physics, and planetary rings. Analyze nonlinear stability and linear instability for various perturbations.

Explore massive waves bound to static bodies in astrophysical spacetimes. Discover standing wave solutions and their implications for Klein-Gordon equations on asymptotically conic manifolds.