We present measurements and simulations of semiconductor-superconductor
heterostructure devices that are consistent with the observation of topological …

Abstract Three-dimensional (3D) electronic band structure is fundamental for understanding
a vast diversity of physical phenomena in solid-state systems, including topological phases …

Topological superconductivity can be engineered in semiconductors with strong spin–orbit
interaction coupled to a superconductor. Experimental advances in this field have often …

Abstract Pb (Zr, Ti) O3 (PZT) is the most common ferroelectric (FE) material widely used in
solid‐state technology. Despite intense studies of PZT over decades, its intrinsic band …

Full-shell nanowires are hybrid nanostructures consisting of a semiconducting core
encapsulated in an epitaxial superconducting shell. When subject to an external magnetic …

Majorana zero modes, with prospective applications in topological quantum computing, are
expected to arise in superconductor/semiconductor interfaces, such as β-Sn and InSb …

The electronic structure of surfaces plays a key role in the properties of quantum devices.
However, surfaces are also the most challenging to simulate and engineer. Here, the …

The development of adsorbent and/or photocatalysts based on covalent triazine frameworks
(CTF) is fascinating research due to their structural properties, functional groups, and active …

The conversion of solar energy into chemical energy, stored in the form of hydrogen, bears
enormous potential as a sustainable fuel for powering emerging technologies. Photoactive …

The electronic structure of heterointerfaces is a pivotal factor for their device functionality. We
use soft x-ray angle-resolved photoelectron spectroscopy to directly measure the momentum …