
Explore Hamiltonian systems and their advantages in mechanics. Learn about generalized momentum, canonical equations, and the transformation from Lagrangian to Hamiltonian formalism.

Comprehensive exploration of advanced mathematical concepts in theoretical physics, from set theory to Lie groups, manifolds, and fiber bundles, with applications in quantum mechanics and symmetries.

Explore cutting-edge theories in physics, from black holes and Hawking radiation to string theory, challenging our understanding of the universe and information.

Explore cutting-edge experimental approaches in fundamental physics, focusing on innovative techniques and their potential to advance our understanding of particle physics beyond the LHC.

Explore cutting-edge particle physics research at the LHC, including luminosity, hadron colliders, and factorization. Gain insights into new physics prospects and theoretical advancements in the field.

Explore innovative approaches to the hierarchy problem in particle physics, focusing on technical and direct naturalness, effective field theory, and their implications for the Standard Model.

Explore covariant phase space with boundaries in field theory, covering key concepts like configuration space, prephase space, and Hamiltonian construction.

Explore quantum complexity, random circuits, and phase transitions in higher dimensions, with applications to tensor networks and simulation algorithms.

Explore singularity formation in reduced fluid equation models, focusing on electron magnetohydrodynamics and its connection to Euler equations. Gain insights into nonlinear dynamics and finite-time singularities.

Exploration of categorical local Langlands correspondence, discussing recent progress, proofs, and implications for number theory and algebraic geometry.

Explore random matrix models, focusing on the Gaussian Unitary Ensemble and its applications to gravity, holography, and quantum physics. Discover new insights into discrete spectra and non-perturbative information.

Explore gauge theory scattering amplitudes as chiral algebra correlators, connecting to celestial holography and deriving expressions for form factors using innovative mathematical approaches.

Explore Hamiltonian Floer complexes on surfaces, connecting dynamics to Floer chain structure. Discover a new symplectic norm and geometric interpretations of chain complexes using transverse foliations.

Explore connections between particle physics and mathematics, revealing how spacetime and quantum mechanics emerge from fundamental mathematical structures in combinatorics, algebra, and geometry.

Explore lattice edge theories for topological phases, focusing on finite-dimensional edge theories and their unique properties, including ungappable examples with implications for quantum systems.

Explore quantum circuits, cellular automata, and tensor networks, focusing on their representations, entanglement properties, and generalizations to quantum channels and measurement-assisted dynamics.

Explore gauge theory's role in geometric Langlands correspondence, comparing categorical and analytic approaches through quantum states, operators, and gauge theory interpretations.

Explore celestial operator product expansions, w1+infinity symmetry, and their implications for massless particles of all spins in gravitational theories and high-energy physics.

Explore continuous solutions to incompressible Euler equations exhibiting local energy dissipation, addressing Onsager's conjecture and its implications for hydrodynamic turbulence.

Explore quantum computing's potential in simulating complex many-body systems, discussing algorithms, advantages, and challenges in dynamics, ground states, and finite temperature calculations.

Explore superstring amplitudes, double copy theory, and related mathematical concepts in this advanced physics seminar by Francis Brown from Oxford University.