Transmission electron microscopy articles from across Nature Portfolio

The authors characterize the phonon modes at the FeSe/SrTiO₃ interface with atomically resolved electron energy loss spectroscopy and correlate them with accurate atomic structure in an electron microscope. They find several phonon modes highly localized at the interface, one of which engages in strong interactions with the electrons in FeSe.

Application of correlative light and electron microscopy (CLEM) in plants remains challenging. Here, the authors use Click-iT chemistry as a tool for CLEM, due to its unique properties in resin permeability and super-resolution microscopy. They use this approach to study cellular physiology in Arabidopsis.

Operando transmission electron microscopy imaging reveals that modifying interlayer rotations alters both the spatial arrangement and switching dynamics of polar domains in artificially stacked trilayers of WSe₂.

Single atom detection in nanoporous materials is challenging due to their sensitivity to electron irradiation. Here, the three-dimensional atomic occupancy of natural beryl is quantitatively analysed using high-angle annular dark-field imaging in a scanning transmission electron microscope and statistical analysis.

In many concentrated alloys of current interest, the observation of diffuse superlattice intensities by transmission electron microscopy has been attributed to chemical short-range order. We briefly review these findings and comment on the plausibility of widespread interpretations, noting the absence of expected peaks, conflicts with theoretical predictions, and the possibility of alternative explanations.

Local vibrational modes at substitutional impurities in monolayer graphene are resolved with a sensitivity at the chemical bonding level, revealing the impacts of different chemical configurations and mass of impurity atoms on the defect-perturbed vibrational properties.

Volume electron microscopy (vEM) is a group of techniques that reveal the 3D ultrastructure of cells and tissues through continuous depths of at least 1 micrometer. A burgeoning grassroots community effort is fast building the profile and revealing the impact of vEM technology in the life sciences and clinical research.