
Explore string theory's insights into dark energy, quantum gravity, and coupled dark sectors, with potential observable consequences.

Explore the current state of High-Energy Physics, examining past theories, ongoing research, and future prospects in the search for new phenomena.

Explore the emergence of spacetime and dimensional changes at high energies through an information-theoretic approach, examining bosonic and fermionic interactions.

Explore E11 Kac-Moody symmetry in string theory, its relation to supergravity, and implications for extended spacetime. Delve into recent applications in four-dimensional gravity and open questions.

Explore covariant Loop Quantum Gravity dynamics and its applications to cosmology, including primordial correlations, entanglement entropy, and singularity resolution in the quantum gravitational framework.

Explore CP violation, flavour puzzles, and LHCb experiment results in particle physics. Uncover mysteries of antimatter absence and fundamental fermion generations.

Explore CP violation, flavour puzzles, and LHCb experiment results in particle physics. Uncover mysteries of antimatter absence and fundamental fermion generations.

Explore algebraic classical and quantum field theory on causal sets, focusing on quantisation approaches and the Sorkin-Johnston state for free scalar fields, with potential applications to interacting fields.

Explore gravitational wave signals from cosmic strings and their detection prospects with upcoming experiments and recent pulsar timing array data.

Explore universal scaling relations in electron-phonon superconductors, focusing on Homes law and its implications for high-temperature superconductivity in strongly coupled systems.

Explore gravitational waves as a probe of the early Universe, covering search status, stochastic background evidence, data analysis challenges, and new high-frequency detection ideas.

Explore cutting-edge physics research through student presentations on Hamiltonian Monte Carlo simulations, fundamental constants, and more.

Explore gravitational-wave astronomy and its implications for testing General Relativity, focusing on waveform predictions, higher curvature corrections, and numerical simulations in effective field theories of gravity.

Explore a concise mathematical definition of quantum field theory and its implications for physics through a categorical approach to Riemannian manifolds and Hilbert spaces.

Explore connections for principal bundles in higher categories, their relation to higher parallel transport, and generalised Atiyah sequence splittings.

Explore tree-level BCJ color-kinematics duality, double copy, and L-infinity algebras, advancing to loop-level duality and BV-box algebra applications in mathematical physics.

Explore higher spin states through asymmetrical twisting of string OPE, calculate 4-point amplitudes, and speculate on effective field theory implications.

Explore moduli spaces of flat connections, BV formalism, and Goldman-Turaev Lie bialgebra in this advanced mathematical physics seminar.

Explore Lie superalgebras, cohomology, and Dirac operators, focusing on gl(m|n) case and connections between Lie algebra and Dirac cohomology.

Explore integral forms in QFT and supergravity, from motivation to application in constructing physical actions using Poincare' dual forms and supermanifolds.

Explore real-time local quantum field construction in 1+1-dimensions using renormalization group techniques and operator-algebraic formulations, avoiding imaginary-time settings.