
Explore differential operators on Courant algebroids, Dorfman connections, and the Atiyah class in this advanced mathematical physics seminar.

Explore anomalous transport of tracers in active baths, focusing on long-time dynamics, ratchet effects, and unique friction properties in low-dimensional systems.

Explore geometric interpretations of nonequilibrium reaction networks, extending Hill-Schnakenberg theory to hypergraphs and analyzing cycles, cocycles, and stochastic models.

Explore universal exponential tails in diffusing particle packets, extending large deviation theory for continuous time random walks and uncovering general behaviors in transport phenomena.

Explore Engineered Swift Equilibration (ESE) applications in physics, including particle compression, first passage time optimization, and atomic force microscopy enhancements.

Explore stochastic resetting in dynamical processes, its impact on system behavior, and applications in chemical reactions and search processes.

Explore entropy growth in free expansion of ideal gas, examining macrostates, irreversibility, and factors influencing entropy increase in non-equilibrium systems.

Explore quantum bounds for transport coefficients and their connection to the Fluctuation-Dissipation relation, with insights from high-energy physics and String Theory.

Explore the Casimir effect's connection to spectral geometry and microlocal analysis. Learn to define Casimir energy as an operator trace and compute it using boundary layer operator determinants.

Explore injectivity in second-gradient nonlinear elasticity, delving into advanced mathematical concepts and their applications in materials science.

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