Vortex rings are ubiquitous topological structures in nature. In solid magnetic systems, their
formation leads to intriguing physical phenomena and potential device applications …

The spontaneous formation and topological transitions of vortex‐antivortex pairs have
implications for a broad range of emergent phenomena, for example, from superconductivity …

Non-uniform magnetic domains with non-trivial topology, such as vortices and skyrmions,
are proposed as superior state variables for nonvolatile information storage. So far, the …

The non-trivial topology of magnetic structures such as vortices and skyrmions is considered
as a key concept to explain the stability of those structures. The stability, dictated by non …

Topological defects are fundamental concepts in physics, but little is known about the
transition between distinct types across different dimensionalities. In topological magnetism …

Chiral effects originate from the lack of inversion symmetry within the lattice unit cell or
sample's shape. Being mapped onto magnetic ordering, chirality enables topologically non …

We report an additional reversal mechanism of magnetic vortex cores in nanodot elements
driven by currents flowing perpendicular to the sample plane, occurring via dynamic …

Topological magnetic monopoles (TMMs), also known as hedgehogs or Bloch points, are
three-dimensional (3D) non-local spin textures that are robust to thermal and quantum …

Vortices are fundamental magnetic topological structures characterized by a curling
magnetization around a highly stable nanometric core. The control of the polarization of this …

Exploration and manipulation of topological protected magnetic swirls, such as skyrmion,
antiskyrmion, meron, and vortex, holds significance for fundamental research and practical …