Published: Dec 31, 2024 by Ismail El Baggari

Following initial demonstration of a novel liquid helium flow cryogenic TEM holder in 2023, our team assembled subsequent prototypes that have shown sub-Angstrom HRTEM imaging, low sample drift (less than 0.4 Angstrom per second), and low millikelvin-level temperature fluctuations.

The sample stage is compatible with state-of-the-art aberration-corrected microscopes such as TFS Spectra 300.

improved resolution


Latest Posts

Cryogenic STEM reveals phenomenon of inverse melting in doped ferroelectric

A cryogenic scanning transmission electron microscopy (cryo-STEM) study reveals the phenomenon of inverse melting in Zr-doped BaTiO3.

Variable temperature cryogenic STEM reveals charge order melting in new publication

A cryogenic scanning transmission electron microscope reveals the atomic-scale mechanism that disrupts the charge-ordered state in a manganite material. The visualizations were performed at the atomic scale and across variable temperatures. This work by Noah Schnitzer was published in Physical Review X.

Higher resolution in a second prototype liquid helium holder

Following initial demonstration of a novel liquid helium flow cryogenic TEM holder in 2023, our team assembled subsequent prototypes that have shown sub-Angstrom HRTEM imaging, low sample drift (less than 0.4 Angstrom per second), and low millikelvin-level temperature fluctuations.