Plasmonics is a rapidly growing field spanning research and applications across chemistry,
physics, optics, energy harvesting, and medicine. Ultrafast photoemission electron …

Nanoscale plasmonic systems combine the advantages of optical frequencies with those of
small spatial scales, circumventing the limitations of conventional photonic systems by …

Capturing and controlling plasmons at buried interfaces with nanometre and femtosecond
resolution has yet to be achieved and is critical for next generation plasmonic devices. Here …

The accurate calculation of laser energy absorption during femto-or picosecond laser pulse
experiments is very important for the description of the formation of periodic surface …

Functional surfaces decorated with organic molecules and/or nanoclusters (NCs) composed
of several tens of atoms are promising for use in future photoelectronic substrates, whose …

Understanding the mechanisms and controlling the possibilities of surface nanostructuring is
of crucial interest for both fundamental science and application perspectives. Here, we …

Visualization of surface plasmon polariton (SPP) propagation at dielectric/metal interfaces is
indispensable in providing opportunities for the precise designing and controlling of the …

Surface plasmon polaritons (SPPs) can confine and guide light in nanometer volumes and
are ideal tools for achieving electric field enhancement and the construction of nanophotonic …

Superatoms (SAs) with specific compositions have the potential to significantly advance the
field of nanomaterials science, leading to next-generation nanoscale functionalities. In this …

A combined experimental and theoretical study on the laser-induced excitation of surface
plasmon polaritons (SPP) at well-defined step edges of a gold–vacuum interface is …