Plasmon-induced chemical reactions based on direct interactions between the plasmons of
metal nanostructures and molecules have attracted increasing attention as a means of …

The climate crisis necessitates the development of non-fossil energy sources. Harnessing
solar energy for fuel production shows promise and offers the potential to utilize existing …

Selective CO2 photoreduction to value‐added multi‐carbon (C2+) feedstocks, such as
C2H4, holds great promise in direct solar‐to‐chemical conversion for a carbon‐neutral …

The local surface plasmon resonances of gold nanoparticles have the potential to create
alternative pathways for organic chemical reactions. These transformations depend on …

The CO 2 reduction reaction on Ag in the presence of surface plasmons are of strong
interest in photocatalysis. Here, two Density Functional Theory (DFT) approaches are …

Plasmonic-driven photocatalysis is one of the most vibrant and promising field in
nanoscience. Out of the various mechanisms known to activate chemical reactions in …

With the introduction of single atoms in photocatalysis, a small change in the electronic and
geometric structure of the substrate can result in higher energy conversion efficiency …

Plasmonics has aroused tremendous interest in photophysics, nanophotonics, and
metamaterials. The extreme field concentration of plasmonics offers the ultimate spatial and …

Plasmonic catalysis is a rapidly growing field of research, both from experimental and
computational perspectives. Experimental observations demonstrate an enhanced …

Due to its relatively high inertness, nitrogen dissociation at ambient temperature and
pressure has always been a challenging task. Plasmon driven photocatalysis has proved to …