
Explore observations of tidal disruption events and nuclear transients, providing insights into galactic nuclei and supermassive black holes. Learn about recent advances and outstanding questions in the field.

Explore radio emissions from tidal disruption events, unveiling prompt outflows during stellar disruption by supermassive black holes. Gain insights into galactic nuclei and black hole properties.

Explore mathematical aspects of disordered topological insulators, focusing on 1D classification and the application of algebraic topology to quantum mechanical Hamiltonians.

Explore spin topology in insulating materials, focusing on spin Chern class phases, spin Chern insulators, and spin Weyl topological insulators. Learn about the average spin Chern number and its correlation with spin Hall conductivity.

Explore the origins of late-time radio emissions in tidal disruption events, providing insights into galactic nuclei and supermassive black holes through luminous accretion flares.

Explore a model for repeated tidal disruption events in supermassive black hole binaries, offering insights into galactic nuclei and black hole properties through luminous accretion flares.

Explore the cooling envelope model for tidal disruption events with Brian Metzger, examining how stars are destroyed by supermassive black holes and the resulting luminous accretion flares.

Explore why tidal disruption events emit more optical and radio waves than X-rays, offering insights into supermassive black holes and galactic nuclei through luminous accretion flares.

Explore the initial electromagnetic emission from tidal disruption events, providing insights into supermassive black holes and galactic nuclei through stellar destruction observations.

Explores low-energy electrodynamics of quantum anomalous Hall state in magnetically doped topological insulators, focusing on experimental findings and implications of magnetic gap disorder.

Explore spin and orbital Hall effects in 2D topological materials through high-throughput calculations, examining their relationship with topological properties and potential applications in spin-orbitronics.

Explore the impact of quantum physics on our understanding of the world and its role in driving technological advancements, presented by Amandine Bard at TEDxYouth@WellingtonHZ.

Exploring correlation functions and bulk scaling limits in free boundary Schur process, with insights on new deformations of universal distributions in statistical mechanics.

Explore the geometry of the doubly periodic Aztec diamond dimer model, including arctic curves, amoeba, and local fluctuations in statistical mechanics and discrete geometry.

Explore the multinomial dimer model's limit shape theory, bistochastic gauge, and 3D Aztec diamond applications in statistical mechanics and discrete geometry.

Explore bath-engineering techniques for manipulating magnetic order in quantum spin chains, focusing on innovative approaches and potential applications in quantum information.

Explore classical dynamics in quantum spin liquids with Emily Zhang, uncovering insights into these exotic states of matter and their potential applications in quantum information.

Explores the localisation-delocalisation transition in many-body quantum systems from a Fock space perspective, discussing stability mechanisms and their implications for quantum matter and technologies.

Explore non-Hermiticity and anomalous relaxation in quantum systems, examining how imperfections can lead to unexpected benefits in many-body dynamics and stability.

Explore Krylov complexity and Trotter transitions in unitary circuit dynamics, examining mechanisms constraining many-body quantum systems and their implications for non-equilibrium physics.

Explore prethermalization in aperiodically driven spin systems, examining quantum matter stability and non-equilibrium physics. Gain insights into cutting-edge research in condensed matter and statistical mechanics.