Current far-field fluorescence nanoscopes provide subdiffraction resolution by exploiting a
mechanism of fluorescence inhibition. This mechanism is implemented such that features …

We introduce far-field subdiffraction-resolution fluorescence imaging based on
photoswitching of individual standard fluorophores in air-saturated solution. Here …

Optical microscopes, often referred to as 'light microscopes', use visible light and a system of
lenses to provide us with magnified images of small samples. Combined with highly …

By combining the photoswitching and localization of individual fluorophores with
spectroscopy on the single molecule level, we demonstrate simultaneous multicolor imaging …

Lens-based optical microscopy failed to discern fluorescent features closer than 200 nm for
decades, but the recent breaking of the diffraction resolution barrier by sequentially …

Recent advances in far-field microscopy have demonstrated that fluorescence imaging is
possible at resolutions well below the long-standing diffraction limit. By exploiting …

The majority of studies of the living cell rely on capturing images using fluorescence
microscopy. Unfortunately, for centuries, diffraction of light was limiting the spatial resolution …

Far-field super-resolution fluorescence microscopy discerns fluorophores residing closer
than the diffraction barrier by briefly transferring them in different (typically ON and OFF) …

A new form of super-resolution fluorescence microscopy has emerged in recent years,
based on the high accuracy localization of individual photo-switchable fluorescent labels …

Recent advances in far-field optical nanoscopy have enabled fluorescence imaging with a
spatial resolution of 20 to 50 nanometers. Multicolor super-resolution imaging, however …