BACKGROUND Transmission electron microscopy offers structural and compositional
information with atomic resolution, but its use is restricted to thin, solid samples. Liquid …

Liquid cell electron microscopy possesses a combination of spatial and temporal resolution
that provides a unique view of static structures and dynamic processes in liquids. Optimizing …

Liquid cell electron microscopy enables direct in situ imaging of processes in liquids and
objects suspended in liquids with nanoscale resolution. However, the irradiating electrons …

Although nanocrystal morphology is controllable using conventional colloidal synthesis,
multiple characterization techniques are typically needed to determine key properties like …

Liquid cell electron microscopy has emerged as a powerful technique for in situ studies of
nanoscale processes in liquids. An accurate understanding of the interactions between the …

Transmission electron microscopy (TEM) has long been an essential tool for understanding
the structure of materials. Over the past couple of decades, this venerable technique has …

Liquid cell transmission electron microscopy (LCTEM) can provide direct observations of
solution-phase nanoscale materials, and holds great promise as a tool for monitoring …

Modern microelectronic devices have nanoscale features that dissipate power nonuniformly,
but fundamental physical limits frustrate efforts to detect the resulting temperature gradients …

Direct observations of solution-phase nanoparticle growth using in situ liquid transmission
electron microscopy (TEM) have demonstrated the importance of “non-classical” growth …

Liquid-phase transmission electron microscopy (TEM) can probe and visualize dynamic
events with structural or functional details at the nanoscale in a liquid medium. Earlier efforts …