
Explore tensor categories as quantum symmetries, using Jones subfactor theory and bi-unitary connections to study 2D topological order and tensor networks.

Explore tensor categories as quantum symmetries, using Jones subfactor theory and bi-unitary connections to study 2D topological order and tensor networks.

Explore tensor categories as quantum symmetries, using Jones subfactor theory and bi-unitary connections to study 2D topological order and tensor networks.

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

Explore Langlands duality for affine Hecke category, its applications in representation theory, and potential generalizations to symplectic singularities. Gain insights into geometric local Langlands duality.

Explore intersection theory on super Riemann surface moduli spaces, including recursion formulas, polynomiality, and applications to JT gravity.

Explore the novel "Solution Landscape" concept and its applications in complex systems, including nematic liquid crystals, crystalline phases, and Bose-Einstein condensates.

Explore connections between Gromov-Witten theory and statistical physics, applying concepts from both fields to gain new insights and tackle complex problems in topological string theory.

Explore Floquet engineering in condensed-matter structures, examining oscillations under various field conditions and their detection through pump-probe spectra. Uncover intriguing phenomena like the Bloch-Siegert shift.

Explore the art of transforming complex scientific concepts into engaging visual narratives. Learn techniques for making science accessible and compelling to diverse audiences through graphic storytelling.

Explore an award-winning animation blending art and science to demystify Quantum Optics concepts, showcasing creative potential and innovative storytelling techniques.

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

Explore the complex physics of primordial black holes, their role in universe reheating, dark matter production, and gravitational waves through advanced theoretical concepts and recent observational data.

Explore how quantum information and thermodynamics intersect at nanoscale levels, examining fundamental laws through experimental frameworks that combine classical thermodynamic elements with quantum systems.

Explore the quest for physics' holy grail - a unified theory connecting quantum and cosmic scales - through expert discussions on its necessity, feasibility, and implications for science.

Delve into quantum paradoxes and philosophical questions about reality through expert discussions on Schrödinger's cat, quantum superposition, and various interpretations of quantum mechanics.

Explore advanced mathematical concepts in integrable probabilistic systems, focusing on stationary measures, discrete models, and their applications in theoretical physics and mathematics.

Delve into advanced concepts of colored vertex models, exploring their connections to orthogonal functions and probability theory through expert mathematical analysis and demonstrations.

Delve into quantum optical phenomena at nanoscales, exploring atom-field interactions, Casimir-Polder forces, and non-Markovian dynamics for quantum networks and distributed sensing applications.

Explore groundbreaking research on superradiant and subradiant states in organic molecules, examining quantum light manipulation through coupled emitters and laser-induced tuning techniques.

Explore cutting-edge matter-wave interferometry and its applications in precision metrology, from testing Einstein's equivalence principle to detecting gravitational waves in groundbreaking experiments.