The nanoscale morphology of metal nanostructures directly defines their optical, catalytic
and electronic properties and even small morphological changes can cause significant …

For the motion control of individual molecules at room temperature, optical tweezers could
be one of the best approaches to realize desirable selectivity with high resolution in time and …

Single-particle spectroelectrochemistry provides optical insight into understanding physical
and chemical changes occurring on the nanoscale. While changes in dark-field scattering …

Cu is the only transition metal that can achieve electrochemical CO2 reduction (CRR) with
the generation of hydrocarbons and oxygenates. However, it is still challenging to regulate …

Electrochemical reactivity is known to be dictated by the structure and composition of the
electrocatalyst–electrolyte interface. Here, we show that optically generated electric fields at …

Continuously advancing technologies is crucial to tackling modern challenges such as
efficient energy transfer, directing catalytic behavior, and better understanding of …

Accurate real-time molecular-level monitoring of the physicochemical properties of species
at the solid–liquid interfaces under ambient conditions with good temporal and spatial …

The excitation of plasmon resonances on nanoparticles generates locally enhanced electric
fields commonly used for sensing applications, and energetic charge carriers can drive …

Ruthenium-based metal complexes are one of the most widely studied dyes because of their
rich photochemistry and light-harvesting properties. Significant attention has been paid to …

Abstract A protonated form of 1, 2-bis (4-pyridyl) ethylene (HBpe+), produced through proton
transfer or pH adjustments, plays a significant role in forming unique supramolecular …