Kagome materials have emerged as a setting for emergent electronic phenomena that
encompass different aspects of symmetry and topology. It is debated whether the XV6Sn6 …

Understanding the geometric properties of quantum states and their implications in
fundamental physical phenomena is a core aspect of contemporary physics. The quantum …

The emerging field of orbitronics aims to generate and control orbital angular momentum for
information processing. Chiral crystals are promising orbitronic materials because they have …

The momentum-dependent orbital character in crystalline solids, referred to as orbital
texture, is of capital importance in the emergence of symmetry-broken collective phases …

Engineering surfaces and interfaces of materials promises great potential in the field of
heterostructures and quantum matter designers, with the opportunity to drive new many …

We study the interplay of lattice, spin, and orbital degrees of freedom in a two-dimensional
model system: a flat square lattice of Te atoms on a Au (100) surface. The atomic structure of …

The topology of the electronic band structure of solids can be described by its Berry
curvature distribution across the Brillouin zone. We theoretically introduce and …

The study of heterogeneous reactions for enantiomeric processes based on inorganic
crystals has been resurgent in recent years. However, the question remains how …

The electronic structure of Weyl semimetals features Berry flux monopoles in the bulk and
Fermi arcs at the surface. While angle-resolved photoelectron spectroscopy (ARPES) is …

Degeneracy points in non-Hermitian systems are of great interest. While a homotopic
framework exists for understanding their behavior in the absence of symmetry, it does not …