Terahertz (THz) radiation has received much attention during the past few decades for its
potential applications in various fields, such as spectroscopy, imaging, and wireless …

A significant interest in combining plasmonics and magnetism at the nanoscale gains
momentum in both photonics and magnetism sectors that are concerned with the resonant …

Light fields at terahertz and mid-infrared frequencies allow for the direct excitation of
collective modes in condensed matter, which can be driven to large amplitudes. For …

The ability to manipulate the multiple properties of light diversifies light-matter interaction
and light-driven applications. Here, using quantum control, we introduce an approach that …

The interaction of N two-level atoms with a single-mode light field is an extensively studied
many-body problem in quantum optics, first analyzed by Dicke in the context of …

Two-dimensional materials equipped with strong spin–orbit coupling can display novel
electronic, spintronic, and topological properties originating from the breaking of time or …

Intense terahertz pulses offer unique pathway to resonantly drive the correlated spin
systems up to the nonlinear regime. However, detection of such nonlinear spin dynamics …

Exotic quantum vacuum phenomena are predicted in cavity quantum electrodynamics
systems with ultrastrong light-matter interactions. Their ground states are predicted to be …

Owing to their high magnon frequencies, antiferromagnets are key materials for future high-
speed spintronics. Picosecond switching of antiferromagnetic spin systems has been viewed …

Excitation and nonlinear control of lattice vibrations with light has become a powerful
method to manipulate the properties of quantum materials out of equilibrium. Generalizing …