Renwen Yu

TL;DR: In this paper, the authors demonstrate plasmons in few-nanometre-thick gold UTMFs, with clear evidence of new dispersion regimes and large electrical tunability.

TL;DR: This tutorial review presents and extends a simple analytical simulation method that allows us to accurately describe the optical response of metal nanoparticles, including retardation effects, without the requirement of large computational resources.

TL;DR: It is predicted that an ultrafast (femtosecond) radiative cooling regime takes place in plasmonically active neighboring graphene nanodisks prior to electron relaxation, opening an unexplored avenue toward efficient heat management.

TL;DR: A system of patterned graphene nanoresonators/nanoribbons can be used as an efficient mid-infrared detector, based on plasmonic resonant absorption and subsequent carrier thermalization.

TL;DR: In this paper, plasmons were demonstrated in few-nanometer gold UTMFs, with clear evidence of new dispersion regimes and large electrical tunability Resonance peaks at 15-5 micrometer wavelengths are shifted by hundreds of nanometers and amplitude-modulated by tens of per cent through gating using relatively low voltages.