Spin waves and their quanta magnons are collective excitation of electron spins in magnetic
materials which can serve as information carriers for future low-power-consumption …

Advancing the development of spin-wave devices requires high-quality low-damping
magnetic materials where magnon spin currents can efficiently propagate and effectively …

Spin waves, collective dynamic magnetic excitations, offer crucial insights into magnetic
material properties. Rare‐earth iron garnets offer an ideal spin‐wave (SW) platform with …

Spin waves or their quanta magnons are collective excitations in magnetically ordered
materials. Magnonics have recently attracted tremendous interest for building next …

Developing schemes for efficient and broadband frequency conversion of quantum signals
is an ongoing challenge in the field of modern quantum information. The coherent …

Magnetic insulating materials with perpendicular magnetic anisotropy bring an innovation to
the existing spin-related technologies and magnonic applications. Yttrium iron garnet (YIG) …

The anomalous Hall effect (AHE) has been widely studied and is well-known in
ferromagnetic metals. It is usually investigated in the static regime with the magnetization at …

In this study, the parallel-pumped nonlinear (NL) loss effects of polycrystalline Yttrium Iron
Garnet (YIG) material caused by the high-power microwave (HPM) were explored for the first …

Rare‐earth iron garnets have distinctive spin‐wave (SW) properties such as low magnetic
damping and long SW coherence length making them ideal candidates for magnonics …

Active control of propagating short-wavelength spin waves in perpendicularly magnetized
materials is promising for designing nanoscale magnonic devices. One method of …