
Explore affine W-algebras construction via quantum Hamiltonian reduction. Delve into vertex algebra theory, Virasoro minimal models, and tensor categories of W-algebra representations.

Explore finite W-algebras, twisted Yangians, and Lax operators. Investigate relationships between these mathematical structures in quantum algebra and integrable systems.

Explore finite W-algebras, twisted Yangians, and Lax operators. Investigate relationships between these mathematical structures using advanced algebraic techniques.

Explorez les développements récents dans la théorie des représentations géométriques, en se concentrant sur les tranches de Grassmanniennes affines de type Kac-Moody et leur construction via les branches de Coulomb.

Explore geometric realization of quantum simple Lie super-algebras, S-duality, and connections to geometric Langlands correspondence and relative Langlands duality.

Explore recent advancements in Gamma conjectures, including modifications to Gamma conjecture I and its application over Kähler moduli space.

Explore connections between Gromov-Witten invariants and Fukaya categories, focusing on the cyclic open-closed map, u-connections, and R-matrices. Delve into recent progress and potential extensions beyond semisimple cases.

Explore advanced topics in differential geometry, including special holonomy, complex manifolds, and their connections to various mathematical fields and theoretical physics.

Delve into relativistic scattering theory fundamentals, exploring advanced concepts in nuclear physics and quantum chromodynamics through expert-led theoretical frameworks and applications.

Explore quantum field theories in 6 dimensions, string theory concepts, and their implications for understanding fundamental physics, black holes, and geometric mathematics.

Delve into advanced concepts of Effective Field Theory in nuclear physics, exploring the connection between Quantum Chromodynamics and few-body nuclear systems.

Discover the fundamental principles of Lattice QCD through an advanced physics lecture exploring quantum chromodynamics, nuclear physics, and few-body systems in particle interactions.

Delve into relativistic scattering theory fundamentals, exploring quantum mechanics principles and their applications in nuclear physics, with emphasis on QCD-based approaches and few-body systems.

Delve into advanced concepts of Lattice QCD, exploring quantum chromodynamics calculations and their applications in nuclear physics through expert insights from UNC Chapel Hill research.

Dive into the fundamental principles of Effective Field Theory in nuclear physics, exploring its connection to Quantum Chromodynamics and few-body systems.

Dive into relativistic scattering theory fundamentals, exploring quantum mechanics principles and their applications in nuclear physics, with emphasis on QCD-based approaches and few-body systems.

Dive into advanced string theory concepts, exploring the worldsheet approach to AdS3/CFT2 correspondence through detailed mathematical analysis and theoretical frameworks.

Delve into advanced string theory concepts and explore the intricate relationship between AdS3 and CFT2 through detailed worldsheet analysis and mathematical frameworks.

Delve into advanced string theory concepts and explore the intricate relationship between AdS3 and CFT2 through detailed worldsheet analysis and mathematical frameworks.

Delve into advanced string theory concepts and explore the intricate relationship between AdS3 and CFT2 through detailed worldsheet analysis and mathematical frameworks.

Delve into advanced string theory concepts and explore the intricate relationship between AdS3 and CFT2 through detailed worldsheet analysis and theoretical frameworks.