
Explore Arnold's group-theoretic approach to ideal hydrodynamics and its applications to vortex sheets, fluids with moving boundaries, and multiphase fluids using Lie groupoid symmetries.

Explore finite dimensional integrability in mathematical physics through geodesic flows on spheres, focusing on two related polytopes.

Explore Hamiltonian geometry of fluids, covering Arnold's group-theoretic approach, compressible fluids, optimal mass transport, and Newton's equations on diffeomorphism groups and probability densities.

Explore geodesic frameworks for vortex sheets and generalized fluid flows, examining group-theoretic approaches to ideal hydrodynamics and Lie groupoid symmetries in mathematical physics.

Explore geodesic flow on surfaces without conjugate points in this advanced mathematical lecture, delving into complex dynamics and geometric concepts.

Explore geodesic flow on surfaces without conjugate points in this advanced mathematical lecture, focusing on dynamics and geometric analysis.

Explore geodesic flow on surfaces without conjugate points in this advanced mathematics lecture. Delve into complex geometric concepts and their applications in surface dynamics.

Explore innovative concepts in geodesic flow flexibility, uncovering dynamic approaches and mathematical insights for advanced understanding.

Delve into advanced group theory concepts exploring train track automata, outer automorphisms of free groups, and geodesics in outer space through rigorous mathematical analysis and theoretical frameworks.