Single-molecule and super-resolution imaging relies on successful, sensitive, and accurate
detection of the emission from fluorescent molecules. Yet, despite the widespread adoption …

The strong light–matter interactions between dyes and plasmonic nanoantennas enable the
study of fundamental molecular-optical processes. Here, we overcome conventional …

Plasmonic particle arrays have remarkable optical properties originating from their collective
behavior, which results in resonances with narrow line widths and enhanced electric fields …

Plasmonic nanostructures offer promising applications as nanocatalysts, but optimizing their
structure–function relationship using optical superlocalization techniques is hindered by the …

Fluorescent molecules are highly susceptible to their local environment. Thus, a fluorescent
molecule near a plasmonic nanoparticle can experience changes in local electric field and …

This paper describes a label free technique for determining ligand loading on metal
nanoparticles using a variant of secondary ion mass spectrometry. Au4004+ clusters …

The nanoscale interaction between single emitters and plasmonic structures is traditionally
studied by relying on near-perfect, deterministic, nanoscale-control. This approach is ultra …

Live-cell imaging elucidates subcellular dynamics, and single-molecule imaging extends the
capabilities of fluorescence microscopy to the scale of tens of nanometers. To understand …

Metal particles at the nanoscale display unique physical, chemical, and optical properties
corresponding to their size, shape, and ligands. These factors can be manipulated to target …