Several methodologies have been developed over the past several years for super-
resolution fluorescence microscopy including saturated structured-illumination microscopy …

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 …

Multiphoton fluorescence microscopy (MPM), using near infrared excitation light, provides
increased penetration depth, decreased detection background, and reduced phototoxicity …

Energy-intensive technologies and high-precision research require energy-efficient
techniques and materials. Lens-based optical microscopy technology is useful for low …

For about a decade, superresolution fluorescence microscopy has been advancing steadily,
maturing from the proof‐of‐principle stage to routine application. Of the various techniques …

In the central nervous system, neurons are organized in specific neural networks with
distinct electrical patterns, input integration capacities, and intracellular dynamics. In order to …

Many cellular structures and organelles are too small to be properly resolved by
conventional light microscopy. This is particularly true for dendritic spines and glial …

Two-photon laser scanning microscopy (2PLSM) allows fluorescence imaging in thick
biological samples where absorption and scattering typically degrade resolution and signal …

Multiphoton upconversion super-resolution microscopy (MPUM) is a promising imaging
modality, which can provide increased resolution and penetration depth by using nonlinear …

Super-resolution fluorescence microscopy has become an important catalyst for discovery in
the life sciences. In STimulated Emission Depletion (STED) microscopy, a pattern of light …