Majorana bound states are quasiparticle excitations localized at the boundaries of a
topologically nontrivial superconductor. They are zero-energy, charge-neutral, particle–hole …

This review paper examines the crucial role of nanowires in the field of quantum computing,
highlighting their importance as versatile platforms for qubits and vital building blocks for …

The unique physicochemical properties of metallic and magnetic nanowires, whether
obtained in well-ordered arrays or as single, isolated, and free-standing structures from …

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

Electron skew scattering by impurities is one of the major mechanisms behind the
anomalous Hall effect in ferromagnetic nanostructures. It is particularly strong at the surface …

We present a detailed investigation of the topological phases and Majorana fermion (MF)
excitations that arise from the bulk interplay between (un) conventional one-and two-band …

Majorana zero modes are predicted to emerge in semiconductor/superconductor interfaces,
such as InAs/Al. Majorana modes could be utilized for fault tolerant topological qubits …

Topological superconductors are appealing building blocks for robust and reliable quantum
information processing. Most platforms for engineering topological superconductivity rely on …

Many recipes for realizing topological superconductivity rely on broken time-reversal
symmetry, which is often attained by applying a substantial external magnetic field …

Exploring the topology of electronic bands is a way to realize new states of matter with
possible implications for information technology. Because bands cannot always be …