Magnons (the quanta of spin waves) propagating in magnetic materials with wavelengths at
the nanometer-scale and carrying information in the form of an angular momentum can be …

This topical review presents an overview of the recent experimental and theoretical attempts
on designing magnonic crystals for operation at different frequencies. The focus is put on the …

Nanomagnets form the building blocks for a gamut of miniaturized energy-efficient devices
including data storage, memory, wave-based computing, sensors, and biomedical devices …

Spin waves represent the collective excitations of the magnetization field within a magnetic
material, providing dispersion curves that can be manipulated by material design and …

Periodically patterned metamaterials are known for exhibiting wave properties similar to the
ones observed in electronic band structures in crystal lattices. In particular, periodic …

Magnonic quasicrystals exceed the possibilities of spin-wave (SW) manipulation offered by
regular magnonic crystals, because of their more complex SW spectra with fractal …

The magnonic band structure of two-dimensional chiral magnonic crystals is theoretically
investigated. The proposed metamaterial involves a three-dimensional architecture, where a …

Symmetry and localization properties of defect modes of a one-dimensional bicomponent
magnonic superlattice are theoretically studied. The magnonic superlattice can be seen as a …

The Brillouin light scattering technique has been exploited to study the angle-resolved spin
wave band diagrams of squared Permalloy antidot lattice. Frequency dispersion of spin …

The spin-wave dispersions in nanostructured magnonic crystals with periodic defects have
been mapped by Brillouin light scattering. The otherwise perfect crystals are one …