Lipids and the membranes they form are fundamental building blocks of cellular life, and
their geometry and chemical properties distinguish membranes from other cellular …

Super-resolution optical imaging based on the switching and localization of individual
fluorescent molecules [photoactivated localization microscopy (PALM), stochastic optical …

Bacterial cytokinesis is accomplished by the essential 'divisome'machinery. The most widely
conserved divisome component, FtsZ, is a tubulin homolog that polymerizes into the 'FtsZ …

Probing the oligomeric state of abundant molecules, such as membrane proteins in intact
cells, is essential, but has not been straightforward. We address this challenge with a simple …

In most bacterial cells, cell division is dependent on the polymerization of the FtsZ protein to
form a ring‐like structure (Z‐ring) at the midcell. Despite its essential role, the molecular …

Super-resolution microscopy provides direct insight into fundamental biological processes
occurring at length scales smaller than light's diffraction limit. The analysis of data at such …

The prokaryotic tubulin homolog, FtsZ, forms a ring-like structure (FtsZ-ring) at midcell. The
FtsZ-ring establishes the division plane and enables the assembly of the macromolecular …

Superresolution imaging methods—now widely used to characterize biological structures
below the diffraction limit—are poised to reveal in quantitative detail the stoichiometry of …

Super-resolution fluorescence microscopy allows the investigation of cellular structures at
nanoscale resolution using light. Current developments in super-resolution microscopy have …

Most biomolecular processes rely on tightly controlled stoichiometries, from the formation of
molecular assemblies to cellular signaling. Single-molecule localization microscopy studies …