
Explore the AdS/CFT correspondence for scalar field theory in lattice AdS_2 and AdS_3, delving into advanced concepts in theoretical physics and string theory.

Explore GPU-based electronic structure computations for exascale platforms using PROGRESS and BML libraries. Learn implementation strategies, performance optimization, and scaling techniques.

Explore CHGNet, a graph-neural-network-based machine-learning potential for modeling universal potential energy surfaces in large-scale simulations with complex electron interactions.

Explore machine learning models for efficient electronic structure calculations in materials discovery and drug design, focusing on density functional theory and the Materials Learning Algorithms library.

Explore quantum speedups for nonconvex optimization using quantum tunneling walks. Learn how this approach outperforms classical algorithms in specific landscapes with high, thin barriers between minima.

Explore resonant fractional conductance in 1D Wigner chains, focusing on quantum point contacts, fractionally charged solitons, and conductance patterns in spinless and spinful cases.

Explore Coulomb blockade in non-thermalised quantum dots, examining non-equilibrium transport properties and potential conductance peaks as indicators of the non-thermalised regime.

Explore quantum geometric tensor concepts, Berry curvature, and quantum metric applications in superconducting qubit arrays for topological states and optimal quantum system control.

Explore ferrodark solitons in spin-1 Bose-Einstein condensates, examining their stability, dynamics, and unique behaviors under different instabilities and perturbations.

Explore the profound connection between higher category theory and lattice models, uncovering solutions to long-standing topological operator challenges in quantum field theory.

Explore spin-orbit interaction's impact on Josephson tunneling, revealing quantum spin fluctuations and new possibilities for spin-active Josephson junctions.

Explore ultracold atom dynamics in harmonic traps interacting with Bose-Einstein condensates. Learn about Raman laser coupling, Bogoliubov excitations, and steady-state preparation for quantum experiments.

Explore quasicrystalline resonant states and nonlinear Landau fan diagrams in van der Waals superlattices, examining unique electron behaviors in incommensurate configurations and moiré potentials.

Explore non-reciprocal quantum matter, focusing on quantum geometry and Kramers degeneracy. Delve into field-free paradigms, linear and nonlinear phenomena, and extreme nonlinearities in layered materials.

Explore a novel electrical breakdown mechanism for exciton insulators, examining the instability of many-body ground states and its implications for condensation energies and electric fields.

Explore flatbands in tight-binding systems, their construction, and effects of disorder and interactions. Discover unconventional phases, metal-insulator transitions, and ergodicity breaking phenomena.

Explore orbital-selective electron correlations and their role in flat band emergence and ferromagnetic fluctuations in condensed matter physics.

Explore exact projected entangled pair ground states and their connection to topological Euler invariants in quantum systems, advancing understanding of quantum many-body physics.

Explore the concept of holographic spacetime, tracing its origins from Hawking's black hole discoveries to implications for our understanding of quantum reality and dimensions.

Explore the Standard Model, Higgs boson discovery, and potential new quantum forces in this interactive talk on particle physics and Large Hadron Collider experiments at CERN.

Explore disordered hyperuniformity in 2D materials, its impact on electronic structures, and role of topological defects in preserving hyperuniformity in amorphous materials.