
Explore advanced variational inference techniques using Rényi and Tsallis divergences to optimize the Deformed Evidence Lower Bound (λ-ELBO) for improved probabilistic modeling.

Explore geometric formulation of quantum states using Lagrangian polar duality, challenging traditional uncertainty principle interpretations and quantum mechanics concepts.

Explore geometric principles bridging classical and quantum mechanics, examining symmetries, Planck's constant, and prequantization to determine quantum states through inequalities.

Explore eigenvalues in Gordon Klein equation with Schwarzschild metric, examining implications for black hole information paradox and eternal black holes.

Explore the Rankin-Cohen deformation quantization, its connections to modular forms and foliations, and discover a new oscillatory integral formula for Zagier's UDF.

Explore advanced geometric thermodynamics, focusing on polysymplectic Souriau Lie group theory and coadjoint orbit structures in mathematical physics.

Explore conformations of intrinsically disordered proteins, delving into their unique structural characteristics and functional implications in biological systems.

Explore the historical development and significance of Schützenberger-Pinsker inequalities in information theory and probability theory.

Explore statistical mechanics through a categorical lens, gaining insights into complex systems and thermodynamic principles.

Explore stochastic rotating shallow water equations on the sphere, focusing on Casimir dissipation stabilization techniques and their applications in geophysical fluid dynamics.

Explore variational geometric methods for modeling fluid dynamics with permeable boundaries, enhancing understanding of complex fluid systems and their interactions.

Explore Lagrangian trajectories and closure models in quantum classical dynamics, gaining insights into advanced theoretical physics concepts.

Estimate hemodynamic fields in 3D artery models using SE3 equivariant graph neural networks, enhancing accuracy and efficiency in cardiovascular research.

Explore Hamiltonian variational formulation for complex thermodynamic systems, gaining insights into advanced mathematical approaches in physics and engineering.

Explore Lagrangian fluid mechanics using advanced E3 equivariant graph neural networks for innovative computational modeling approaches.

Explore a variational principle of minimum for Navier-Stokes equations using symplectic formalism, advancing understanding of fluid dynamics and mathematical physics.

Explore couplings of Brownian motions on SU2 and C, delving into advanced mathematical concepts and their applications in stochastic processes.

Explore twistor spaces on foliated manifolds and their applications in geometric information science. Delve into advanced mathematical concepts and their relevance to information theory.

Explore a discrete model for vortex loops in two-dimensional fluid dynamics, examining mathematical concepts and computational applications.

Explore Riemann's theta function's role in mathematics, from geometry to cryptography, and its connection to water wave physics through the KP equation.

Explore core research in Mathematical General Relativity, Quantum Field Theory, and Information Theory, with connections to various mathematical areas.