To optimize electron energy for in situ imaging of large biological samples up to 10 μm in
thickness with nanoscale resolutions, we implemented an analytical model based on elastic …

To optimize electron energy for in situ imaging of large biological samples up to 10 μm in
thickness with nanoscale resolutions, we implemented an analytical model based on elastic …

To optimize electron energy toward in-situ imaging large bio-samples up to 10-um thickness
with nanoscale resolution, we implemented an analytical model based on elastic and …

To visualize thick biological samples a variety of volume electron microscopy techniques
have been developed. In Array Tomography, sections prepared using microtomes, cryo …

Driven by life-science applications, a mega-electron-volt Scanning Transmission Electron
Microscope (MeV-STEM) has been proposed here to image thick frozen biological samples …

Driven by life-science applications, mega-electron-volt Scanning Transmission Electron
Microscope (MeV-STEM) has been proposed to image thick biological samples. The high …

Transmission electron microscopes have the ability to visualize almost any specimen at the
nanoscale. Unfortunately, modified imaging protocols are needed when samples are …

While transmission electron microscopy (TEM) can elucidate the structure of nanomaterials
from the micro to the atomic scale, many functional materials are beam sensitive. This has …

In situ transmission electron microscopy (TEM) enables observation of sample dynamics at
the nanoscale. However, observations performed in the TEM have always suffered from …

Scanning transmission electron microscopy (STEM) has been successfully utilized to
investigate atomic structure and chemistry of materials with atomic resolution. However …