Quantum anomalous Hall effect, with a trademark of dissipationless chiral edge states for
electronics/spintronics transport applications, can be realized in materials with large spin …

Quantum anomalous Hall effect has been observed in magnetically doped topological
insulators. However, full quantization, up until now, is limited within the sub–1 K temperature …

Topological insulators doped with transition metals have recently been found to host a
strong ferromagnetic state with perpendicular to plane anisotropy as well as support a …

The quantum anomalous Hall (QAH) effect in magnetic topological insulators is driven by the
combination of spontaneous magnetic moments and spin-orbit coupling. Its recent …

The anomalous Hall effect is a fundamental transport process in solids arising from the spin-
orbit coupling. In a quantum anomalous Hall insulator, spontaneous magnetic moments and …

We combine low energy muon spin rotation (LE-μ SR) and soft-x-ray angle-resolved
photoemission spectroscopy (SX-ARPES) to study the magnetic and electronic properties of …

An interplay of spin–orbit coupling and intrinsic magnetism is known to give rise to the
quantum anomalous Hall and topological magnetoelectric effects under certain conditions …

Elevating the temperature needed to realize the quantum anomalous Hall effect (QAHE) to
above 77 K or higher is the key to practical applications of the effect as well as many others …

The anomalous Hall effect (AHE) arises from the interplay of spin-orbit interactions and
ferromagnetic order and is a potentially useful probe of electron spin polarization, especially …

Recent years have witnessed tremendous success in the discovery of topological states of
matter. Particularly, sophisticated theoretical methods in time-reversal-invariant topological …