
Explore modular tensor categories, focusing on nonsemisimple theory. Gain insights into these mathematical structures and their connections to quantum symmetries and algebraic concepts.

Explore advanced concepts in braided fusion categories, including gauging, Picard groups, Witt equivalence, and categorical Witt groups. Suitable for graduate-level mathematics students.

Explore algebraic theory of semisimple braided tensor categories, covering properties, examples, centralizers, equivariantizations, gauging, and Witt equivalence. Suitable for graduate students.

Explore algebraic theory of semisimple braided tensor categories, covering structure, classification, and applications in quantum symmetries and topological quantum field theories.

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

Explore semisimple braided tensor categories, their structure, and classification. Learn about centralizers, non-degeneracy, equivariantizations, gauging, and Witt equivalence in fusion categories.

Explore quantum integrable systems dynamics using coupled Heisenberg equations. Analyze Onsager algebra models and Kitaev model, uncovering new analytical results for quench dynamics and related algebras.

Explore Onsager algebras in quantum lattice models, their role in exactly solvable systems, and recent developments in integrable quantum physics.

Explore duality, Onsager algebra, and Ising-type structures in root-of-unity six-vertex models. Uncover connections between quantum group representations and symmetries in integrable systems.

Explore the universal K-matrix in quantum integrable systems with boundaries, focusing on its role in generating trigonometric K-matrices for finite-dimensional representations.

Explore the Standard Model of particle physics, its limitations, and the quest for new physics beyond it with insights from David London's research contributions.

Explore dynamical disorder and carrier localization in halide perovskites, focusing on their soft structure, polaronic states, and computational modeling challenges.

Explore data-driven interatomic potentials and Hyperactive Learning for modeling alloys and polymers with quantum accuracy. Gain insights into precipitate formation and chemical ordering.

Explore thermalization, hadronization, and entanglement in relativistic heavy ion collisions through holographic descriptions and ER=EPR duality. Gain insights into quantum mechanics, chaos, and black hole evaporation.

Explore quantum chromodynamics, hadron formation, and nuclei in the universe. Discover advances in understanding dense matter in neutron stars and high-temperature phenomena in compact object mergers.

Explore mechanisms behind spatially nontrivial order in quantum many-body systems, focusing on dense quark matter in strong magnetic fields and its connection to chiral anomaly and pendulum mathematics.

Explore complex-variable methods to extend quantum theories, uncovering PT-symmetric theories with remarkable properties verified in recent experiments.

Explore the potential half-integer Quantum Hall Effect through RQED bulk perspective, delving into electromagnetic effects in strongly interacting matter.

Explore chiral symmetry breaking in RQED with Alfredo Raya, delving into electromagnetic effects in strongly interacting matter.

Explore statistical interactions of quasi-particles in strongly interacting matter, focusing on electromagnetic effects and their implications in particle physics.

Explore electromagnetic fields in heavy-ion collisions through photon-mediated processes, focusing on cutting-edge research in nuclear physics.