Plasmonic phenomena in metals are commonly explored within the framework of classical
electrodynamics and semiclassical models for the interactions of light with free-electron …

MXenes, a class of layered two-dimensional transition metal carbides and nitrides, exhibit
excellent optoelectronic properties and show promise for fields ranging from photonics and …

The field of two-dimensional (2D) materials-based nanophotonics has been growing at a
rapid pace, triggered by the ability to design nanophotonic systems with in situ control …

Historically, the field of plasmonics has been relying on the framework of classical
electrodynamics, with the local-response approximation of material response being applied …

Noble metal nanostructures are ubiquitous elements in nano-optics, supporting plasmon
modes that can focus light down to length scales commensurate with nonlocal effects arising …

A rigorous account of quantum nonlocal effects is paramount for understanding the optical
response of metal nanostructures and for designing plasmonic devices at the nanoscale …

A quantitative understanding of the electromagnetic response of materials is essential for the
precise engineering of maximal, versatile, and controllable light–matter interactions. Material …

Surface-response functions are one of the most promising routes for bridging the gap
between fully quantum-mechanical calculations and phenomenological models in quantum …

Graphene hybrids, made of thin insulators, graphene, and metals can support propagating
acoustic plasmons (AGPs). The metal screening modifies the dispersion relation of usual …

Straintronics of two-dimensional (2D) materials is a new research area in condensed matter
physics for studying 2D materials under strain. Anisotropic strained graphene does not seem …