The three-dimensional morphology of dislocations significantly influences the mechanical
properties of crystalline materials. Achieving high-accuracy dislocation tomography through …

Dislocation tomography based on transmission electron microscopy (TEM) exhibits excellent
capabilities in three dimensional (3D) visualization of various dislocation structures but still …

Crystalline defects, such as line-like dislocations, play an important role for the performance
and reliability of many metallic devices. Their interaction and evolution still poses a multitude …

The characterization of the three-dimensional arrangement of dislocations is important for
many analyses in materials science. Dislocation tomography in transmission electron …

Dislocations are extended defects within crystalline solids that often influence the
mechanical, electrical, magnetic and optical properties of the material. Establishing more …

The combination of in-situ and three-dimensional (3D) in transmission electron microscopy
(TEM) is one of the emerging topics of recent advanced electron microscopy research …

The microstructure of dislocations can be accessed by the total density of dislocations or the
density of geometrically necessary dislocations (GND). The total dislocation density …

A fast, robust pipeline for strain mapping of crystalline materials is important for many
technological applications. Scanning electron nanodiffraction allows us to calculate strain …

Many material properties are governed by dislocations and their interactions. The
reconstruction of the three-dimensional structure of a dislocation network so far is mainly …

High resolution electron backscatter diffraction (HREBSD), an SEM-based diffraction
technique, may be used to measure the lattice distortion of a crystalline material and to infer …