The physics of quantum materials is dictated by many-body interactions and mathematical
concepts such as symmetry and topology that have transformed our understanding of matter …

As spins move through a chiral electric field, the resulting spin current can acquire chirality
through a spin–orbit interaction. Such spin currents are highly useful in creating spin–orbit …

Strain engineering is a promising way to tune the electrical, electrochemical, magnetic, and
optical properties of 2D materials, with the potential to achieve high‐performance 2D …

Spin-triplet superconductors potentially host topological excitations that are of interest for
quantum information processing. We report the discovery of spin-triplet superconductivity in …

Spin-triplet superconductors are condensates of electron pairs with spin 1 and an odd-parity
wavefunction. An interesting manifestation of triplet pairing is the chiral p-wave state, which …

Phases of matter are usually identified through spontaneous symmetry breaking, especially
regarding unconventional superconductivity and the interactions from which it originates. In …

In the space of less than one decade, the search for Majorana quasiparticles in condensed
matter has become one of the hottest topics in physics. The aim of this review is to provide a …

The first-principles band theory paradigm has been a key player not only in the process of
discovering new classes of topologically interesting materials, but also for identifying salient …

We provide a current perspective on the rapidly developing field of Majorana zero modes
(MZMs) in solid-state systems. We emphasise the theoretical prediction, experimental …

In non-centrosymmetric superconductors, where the crystal structure lacks a centre of
inversion, parity is no longer a good quantum number and an electronic antisymmetric spin …