This review highlights recent efforts on applying electron microscopy (EM) to soft (including
biological) nanomaterials. We will show how developments of both the hardware and …

Metal-based core-shell nanostructures have garnered enduring interest due to their unique
properties and functionalities. However, their growth and transformation mechanisms in …

Utilization of in situ/operando methods with broad beams and localized probes has
accelerated our understanding of fluid-surface interactions in recent decades. The closed …

Graphene liquid cell electron microscopy (GLC-EM), a cutting-edge liquid-phase EM
technique, has become a powerful tool to directly visualize wet biological samples and the …

The ability to resolve the dynamic evolution of electrocatalytically induced processes with
electrochemical liquid‐phase electron microscopy (EM) is limited by the microcell …

Visualizing the structure and processes in liquids at the nanoscale is essential for
understanding the fundamental mechanisms and underlying processes of environmental …

Abstract Liquid-Phase Transmission Electron Microscopy (LP-TEM) offers the opportunity to
study nanoscale dynamics of phenomena related to materials and life science in a native …

Liquid-phase transmission electron microscopy (LPTEM) is a powerful in situ visualization
technique for directly characterizing nanomaterials in the liquid state. Despite its successful …

Single‐molecule techniques are powerful microscopy methods that provide new insights
into biological processes. Liquid‐phase transmission electron microscopy (LP‐TEM) is an …

Nanoscale tailoring of catalytic materials and Li-battery alternatives has elevated the
importance of in situ gas-phase electron microscopy. Such advanced techniques are often …