The scale-up of quantum hardware is fundamental to realize the full potential of quantum
technology. Among a plethora of hardware platforms, photonics stands out: it provides a …

Topological superconductivity can emerge from the combination of conventional
superconductivity in a metal and strong spin–orbit coupling in a semiconductor when they …

The Majorana fermion, which is its own antiparticle and obeys non-Abelian statistics, plays a
critical role in topological quantum computing. It can be realized as a bound state at zero …

Nanowires are filamentary crystals with a tailored diameter that can be obtained using a
plethora of different synthesis techniques. In this review, we focus on the vapor phase …

Selective area epitaxy (SAE) can be used to grow highly uniform III–V nanostructure arrays
in a fully controllable way and is thus of great interest in both basic science and device …

Semiconductor nanowires have demonstrated exciting properties for nanophotonics,
sensors, energy technologies, and end-of-roadmap and beyond-roadmap electronic …

Nanowires are natural one-dimensional channels and offer new opportunities for advanced
electronic quantum transport experiments. We review recent progress on the synthesis of …

The interplay of Dirac physics and induced superconductivity at the interface of a 3D
topological insulator (TI) with an s-wave superconductor (S) provides a new platform for …

Selective-area growth is a promising technique for enabling of the fabrication of the scalable
III–V nanowire networks required to test proposals for Majorana-based quantum computing …

Hybrid semiconductor–superconductor nanowires are promising candidates as quantum
information processing devices. The need for scalability and complex designs calls for the …