In-situ, time-resolved small-angle neutron scattering (SANS) investigations of the early stages of the spinodal decomposition process in Fe-35Cr were performed at 773 and 798K. The kinetics of the decomposition, both in terms of characteristic distance and peak intensity, followed a power-law behaviour from the start of the heat treatment (a' = 0.10-0.11 and a '' = 0.67-0.86). Furthermore, the method allows tracking of the high-Q slope, which is a sensitive measure of the early stages of decomposition. Ex-situ SANS and atom probe tomography were used to verify the results from the in-situ investigations. Finally, the in-situ measurement of the evolution of the characteristic distance at 773K was compared with the predictions from the Cahn-H...
Fe-Cr-Co alloys precipitate nanosized α1 particles through spinodal decomposition, and their m...
International audienceFrom direct observations and measurements at the atomic scale by atom probe to...
International audienceNeutron irradiation at 300 °C up to 0.6 dpa of an industrial purity Fe–12at%Cr...
In-situ, time-resolved small-angle neutron scattering (SANS) investigations of the early stages of t...
Spinodal decomposition is a key phase transition in advanced materials and a significant effort is p...
The effect of cooling rate after solution treatment on the initial structure of concentrated binary ...
Les cinétiques de décomposition dues à la présence d'une lacune de miscibilité dans le système Fe-Cr...
International audienceThe a–a9 spinodal decomposition is known to occurr in iron–chromium-based mode...
Nanostructure evolution during low temperature aging of three binary Fe-Cr alloys has been investiga...
Small-angle neutron scattering (SANS) was applied to quantify the nanostructural evolution during sp...
The Fe–Cr alloy system is the basis of ferritic steels, which are important structural materials for...
In the present paper the small-angle neutron scattering (SANS) technique was used to investigate the...
The spinoidal mechanism is found to be only rarely involved in the decomposition of Fe-Cr alloys; mo...
Spinodal decomposition is a phase separation mechanism within the miscibility gap. Its importance in...
Phase-field simulations of spinodal decomposition in Fe-Cr alloys with dislocations were performed b...
Fe-Cr-Co alloys precipitate nanosized α1 particles through spinodal decomposition, and their m...
International audienceFrom direct observations and measurements at the atomic scale by atom probe to...
International audienceNeutron irradiation at 300 °C up to 0.6 dpa of an industrial purity Fe–12at%Cr...
In-situ, time-resolved small-angle neutron scattering (SANS) investigations of the early stages of t...
Spinodal decomposition is a key phase transition in advanced materials and a significant effort is p...
The effect of cooling rate after solution treatment on the initial structure of concentrated binary ...
Les cinétiques de décomposition dues à la présence d'une lacune de miscibilité dans le système Fe-Cr...
International audienceThe a–a9 spinodal decomposition is known to occurr in iron–chromium-based mode...
Nanostructure evolution during low temperature aging of three binary Fe-Cr alloys has been investiga...
Small-angle neutron scattering (SANS) was applied to quantify the nanostructural evolution during sp...
The Fe–Cr alloy system is the basis of ferritic steels, which are important structural materials for...
In the present paper the small-angle neutron scattering (SANS) technique was used to investigate the...
The spinoidal mechanism is found to be only rarely involved in the decomposition of Fe-Cr alloys; mo...
Spinodal decomposition is a phase separation mechanism within the miscibility gap. Its importance in...
Phase-field simulations of spinodal decomposition in Fe-Cr alloys with dislocations were performed b...
Fe-Cr-Co alloys precipitate nanosized α1 particles through spinodal decomposition, and their m...
International audienceFrom direct observations and measurements at the atomic scale by atom probe to...
International audienceNeutron irradiation at 300 °C up to 0.6 dpa of an industrial purity Fe–12at%Cr...