We show how macroscopic magnetic samples like yttrium iron garnet samples are excellent
candidates for producing deterministic quantum entanglement and, thus, providing a …

We theoretically study the entanglement between two arbitrary spins in a magnetic material
where magnons naturally form a general squeezed coherent state in the presence of an …

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 …

Quantum magnonics is an emerging research field, with great potential for applications in
magnon based hybrid systems and quantum information processing. Quantum correlation …

In general, a magnon does not interact directly with an atom. Here we present a scheme to
generate coherent coupling between two magnons and a superconducting artificial atom via …

We investigate dynamical generation of macroscopic nonlocal entanglements between two
remote massive magnon–superconducting-circuit hybrid systems. Two fiber-coupled …

We propose a scheme to entangle two magnon modes via the Kerr nonlinear effect when
driving the systems far from equilibrium. We consider two macroscopic yttrium iron garnets …

We propose a strategy to generate a many-body entangled state in a collection of randomly
placed, dipolarly coupled electronic spins in the solid state. By using coherent control to …

Entanglement is the essential feature of quantum mechanics. Notably, observers of two or
more entangled particles will find correlations in their measurement results that cannot be …

We propose a scheme to entangle a magnon in an yttrium iron garnet sphere with an atomic
ensemble by using an optical cavity as the qubus. The cavity mode couples with the magnon …