We demonstrate the long-range strong coupling of magnetostatic modes in spatially
separated ferromagnets mediated by a microwave frequency cavity. Two spheres of yttrium …

Generation of entanglement between spatially separated macroscopic systems enables
quantum networks and fundamental tests of quantum theory. Here, we propose a scheme to …

We propose an experimentally realizable nonreciprocal magnonic device at the single-
magnon level by exploiting magnon blockade in a magnon-based hybrid system. The …

We present a theoretical approach to use ferromagnetic or ferrimagnetic nanoparticles as
microwave nanomagnonic cavities to concentrate microwave magnetic fields into deeply …

We experimentally investigate magnon polaritons arising in ferrimagnetic resonance
experiments in a microwave cavity with a tunable quality factor. To this end, we …

We theoretically propose a scheme to generate distant bipartite entanglement between
various subsystems in coupled magnomechanical systems where both the microwave …

Cavity magnonics is an emerging field that studies the strong coupling between cavity
photons and collective spin excitations such as magnons. This rapidly developing field …

The full coherent control of hybridized systems such as strongly coupled cavity-magnon
states is a crucial step to enable future information processing technologies. Thus, it is …

Optomagnonic systems, where light couples coherently to collective excitations in
magnetically ordered solids, are currently of high interest due to their potential for quantum …

We present a scheme to entangle two magnon modes in two macroscopic yttrium-iron-
garnet spheres. The two spheres are placed inside two microwave cavities, which are driven …