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

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 …

The realization of hybrid superconductor–semiconductor quantum devices, in particular a
topological qubit, calls for advanced techniques to readily and reproducibly engineer …

As the condensed matter analog of Majorana fermion, the Majorana zero-mode is well
known as a building block of fault-tolerant topological quantum computing. This review …

Improving materials used to make qubits is crucial to further progress in quantum information
processing. Of particular interest are semiconductor-superconductor heterostructures that …

Topological quantum computing is based on the braiding of Majorana zero modes encoding
topological qubits. A promising candidate platform for Majorana zero modes is …

Hybrid semiconductor–superconductor nanowires constitute a pervasive platform for
studying gate-tunable superconductivity and the emergence of topological behavior. Their …

In superconducting quantum circuits, aluminum is one of the most widely used materials. It is
currently also the superconductor of choice for the development of topological qubits …

Hybrid devices that combine superconductors (S) and semiconductors (Sm) have attracted
great attention due to the integration of the properties of both materials, which relies on the …

Hybrid structures of semiconducting (SM) nanowires, epitaxially grown superconductors
(SC), and ferromagnetic-insulator (FI) layers have been explored experimentally and …