International audienceIn this work, accurate electron channelling contrast imaging (A-ECCI) assisted by high resolution selected area channelling patterns (HR-SACP) was used to characterize the structure of a complex low sub-grain boundary in a creep deformed uranium dioxide (UO$_2$) ceramic. The dislocations were characterized using TEM-style g·b = 0 and g·b × u = 0 contrast criteria. Misorientations across the boundary were measured using HR-SACPs with 0.04° precision and high accuracy EBSD. The boundary was determined to be asymmetric and mixed in nature, composed of two distinct regions with different dislocation morphologies and a misorientation below 0.5°. The A-ECCI, HR-SACP, and HR-EBSD results are consistent, confirming A-ECCI as a...
Interactions between dislocations and grain boundaries are poorly understood and crucial to mesoscal...
The evolution of the microstructure in a commercially pure aluminum during equal channel angular pre...
In this article we describe the scanning electron microscopy (SEM) techniques of electron channellin...
International audienceIn this work, accurate electron channelling contrast imaging (A-ECCI) assisted...
International audienceThe network of sub-boundaries formed in a sintered UO 2 pellet after dislocati...
International audienceThis study presents an original multiscale approach to characterize and quanti...
International audienceHigh resolution selected area channeling pattern (HR-SACP) assisted accurate e...
International audienceStoichiometric uranium dioxide (UO2) pellets were deformed by uniaxial compres...
Electron Channeling Contrast Imaging (ECCI) is a Scanning Electron Microscope (SEM) technique used t...
International audienceFour batches of UO2 pellets were studied comparatively, before and after creep...
In this work, the relative capabilities and limitations of electron channeling contrast imaging (ECC...
In this study, electron channelling contrast imaging (ECCI) and electron backscatter diffraction (EB...
La technique Imagerie par Contraste de Canalisation d'Electron (ECCI) est utilisée en microscopie él...
Uranium dioxide (UO2) is used as a fuel, in pressurized water nuclear reactors, in the form of pelle...
The aim of this work is to study the role of intra-granular voids on the macroscopic behavior and th...
Interactions between dislocations and grain boundaries are poorly understood and crucial to mesoscal...
The evolution of the microstructure in a commercially pure aluminum during equal channel angular pre...
In this article we describe the scanning electron microscopy (SEM) techniques of electron channellin...
International audienceIn this work, accurate electron channelling contrast imaging (A-ECCI) assisted...
International audienceThe network of sub-boundaries formed in a sintered UO 2 pellet after dislocati...
International audienceThis study presents an original multiscale approach to characterize and quanti...
International audienceHigh resolution selected area channeling pattern (HR-SACP) assisted accurate e...
International audienceStoichiometric uranium dioxide (UO2) pellets were deformed by uniaxial compres...
Electron Channeling Contrast Imaging (ECCI) is a Scanning Electron Microscope (SEM) technique used t...
International audienceFour batches of UO2 pellets were studied comparatively, before and after creep...
In this work, the relative capabilities and limitations of electron channeling contrast imaging (ECC...
In this study, electron channelling contrast imaging (ECCI) and electron backscatter diffraction (EB...
La technique Imagerie par Contraste de Canalisation d'Electron (ECCI) est utilisée en microscopie él...
Uranium dioxide (UO2) is used as a fuel, in pressurized water nuclear reactors, in the form of pelle...
The aim of this work is to study the role of intra-granular voids on the macroscopic behavior and th...
Interactions between dislocations and grain boundaries are poorly understood and crucial to mesoscal...
The evolution of the microstructure in a commercially pure aluminum during equal channel angular pre...
In this article we describe the scanning electron microscopy (SEM) techniques of electron channellin...