
Explore the topological origin of surface Maxwell waves, examining their significance in electromagnetism, metamaterials, and non-Hermitian wave physics.

Explore non-Hermitian systems' point-gap topology, examining bulk-boundary correspondence and its impact on exotic surface states in open boundary conditions.

Explore fractional Chern insulators in Moiré materials, examining quantum geometry, symmetry breaking, and novel competing states in flatband systems.

Explore local thermodynamic properties of magic-angle twisted trilayer graphene, uncovering topological correlated insulating states and novel phase transitions through compressibility measurements.

Explore advanced methods for detecting topological insulators and superconductors, focusing on symmetry indicators and filling anomalies in crystalline materials.

Explore steady Floquet-Andreev states in graphene Josephson junctions through microwave application and superconducting tunnelling spectroscopy. Gain insights into non-equilibrium quantum states in condensed matter systems.

Explore geometric effects in non-equilibrium systems, focusing on laser-driven Dirac electrons, Floquet-Weyl semimetals, and quantum tunneling phenomena.

Explore a novel approach to maximize photovoltaic efficiency using topological insulators with polar crystal structures. Learn how band topology impacts electron-hole dipole moments and shift currents in wide-gap semiconductors.

Explore spin-resolved topology in higher-order topological crystalline insulators, examining bulk signatures, experimental observables, and novel spin-resolved phases with distinct responses.

Explore spin glass dynamics, rejuvenation, and memory effects through large-scale numerical simulations, uncovering multiple growing length scales in disordered magnets.

Explore advanced quantum dynamics approximations and their application in Stern-Gerlach interferometry, featuring innovative five-factor expressions and realistic magnetic field simulations.

Explore flatbands in translationally invariant systems, their construction methods, and response to perturbations. Gain insights into nonergodic phases and unconventional states of matter.

Explore many-body quantum chaos through dual-unitary circuits, from quantum ergodic hierarchies to perfect tensors, with insights on construction algorithms and correlation functions.

Explore strong light-matter interactions in quantum systems, analyzing nonperturbative regimes and applications in tight-binding models, bound states, and Josephson junctions.

Explore non-reciprocal frustration in dynamical systems, uncovering time crystalline order-by-disorder phenomena and spin-glass-like states. Gain insights into complex magnetic materials and non-reciprocal matter.

Explore non-Hermitian Hopf-bundle matter, examining line excitations, complex eigenenergy strings, and topological structures in higher dimensions. Uncover bulk-boundary correspondence and higher-order skin effects.

Explore nonequilibrium steady currents in coupled nonintegrable systems through perturbative analysis and numerical simulations, uncovering prethermalization mechanisms.

Explore the collective properties of active systems, focusing on inertia, chirality, and non-reciprocality in self-driven materials that defy equilibrium rules.

Explore a groundbreaking mathematical framework for turbulent fluid motion, covering energy spectra, instability mechanisms, and analytical solutions for turbulence in confined spaces.

Explore advanced geometric volume of fluid methods for tracking sub-grid interfacial features in multiphase flow simulations, including physics-based models for topology changes.

Explore bio-inspired oscillating turbines for energy generation, their dynamic kinematics, and wake patterns. Learn about benefits over traditional rotational turbines.