A novel class of antiferromagnets, dubbed altermagnets, exhibit a nonrelativistically spin-
split band structure reminiscent of the order parameter phase d-wave superconductors …

Cavity control of quantum matter may offer new ways to study and manipulate many-body
systems. A particularly appealing idea is to use cavities to enhance superconductivity …

The exchange of collective modes has been demonstrated to be a powerful tool for inducing
superconductivity and superfluidity in various condensed matter and atomic systems. In this …

We perform Eliashberg calculations for magnon-mediated superconductivity in a normal
metal, where the electron-magnon interaction arises from interfacial coupling to …

The fermionic self-energy on the surface of a topological insulator proximity coupled to ferro-
and antiferromagnetic insulators is studied. An enhanced electron-magnon coupling is …

The ability to modify and tune the spin-wave dispersion is one of the most important
requirements for engineering of magnonic networks. In this study, we demonstrate the …

We study a bilayer structure consisting of an antiferromagnetic insulator and a normal metal.
An electron current is driven in the normal metal with direction parallel to the interface …

Schwinger boson mean-field theory (SBMFT) is a nonperturbative approach which treats
ordered and disordered phases of magnetic systems on equal footing. We leverage its …

Electron-magnon interactions in a bilayer of monoatomic metal and a non-collinear spiral
phase ferromagnetic insulator are studied on a triangular lattice, motivated by recent interest …

The exchange of collective modes has been demonstrated to be a powerful tool for inducing
superconductivity and superfluidity in various condensed matter and atomic systems. In this …