Spin–orbit coupling (SOC) describes the relativistic interaction between the spin and
momentum degrees of freedom of electrons, and is central to the rich phenomena observed …

Within a decade, the field of magnetic skyrmionics has developed from a niche prediction to
a huge and active research field. Not only do magnetic skyrmions—magnetic whirls with a …

Magnetic skyrmions are nanoscale topological spin structures offering great promise for next-
generation information storage technologies. The recent discovery of sub-100-nm room …

The notion of non-trivial topological winding in condensed matter systems represents a
major area of present-day theoretical and experimental research. Magnetic materials offer a …

Magnetic skyrmions are chiral quasiparticles that show promise for the transportation and
storage of information. On a fundamental level, skyrmions are model systems for …

Magnetic skyrmions are topologically protected whirling spin texture. Their nanoscale
dimensions, topologically protected stability and solitonic nature, together are promising for …

Magnetic skyrmions are topological quasiparticles of great interest for data storage
applications because of their small size, high stability, and ease of manipulation via electric …

Symmetry breaking together with strong spin–orbit interaction gives rise to many exciting
phenomena within condensed matter physics. A recent example is the existence of chiral …

The well-known empirical phenomenon known as Moore's Law has held true for the past
half century. However, it is beginning to break down, owing to limitations arising from …

Magnetic skyrmions are topologically stabilized nanoscale spin structures that could be of
use in the development of future spintronic devices. When a skyrmion is driven by an electric …