AbstractOxalate precipitation is a powerful technique for actinide oxide preparation at either laboratory or industrial scales. In this study we focus on the low temperature decomposition of Th(C2O4)2⋅2H2O and (N2H5)2U2(C2O4)5⋅nH2O into nanograined ThO2 and UO2 powders, which will be used later as precursors for the generation of materials emulating the nuclear fuel high burn up structure (HBS). The evolution with temperature of the nanoparticles properties has been investigated using several solid state analytical techniques (transmission and scanning electron microscopy, room and high temperature powder X-ray diffraction, Raman spectroscopy, thermogravimetry). Oxide powders with a high degree of crystallinity and grain size from ∼10nm wer...
In recent years, the hydrothermal conversion of actinide (IV) oxalates into nanometric actinide diox...
International audienceIn recent years, the hydrothermal conversion of actinide (IV) oxalates into na...
The nanostructure and phase evolution in low-temperature oxidized (40–250 °C), fine UO2 powders (<20...
Oxalate precipitation is a powerful technique for actinide oxide preparation at either laboratory or...
AbstractOxalate precipitation is a powerful technique for actinide oxide preparation at either labor...
Hydrothermal decomposition of actinide (IV) oxalates (An= Th, U, Pu) at temperatures between 95 and ...
Production of actinide oxide powder via dry thermal decomposition of corresponding oxalates is curre...
WOS: A1997XY86900005Thorium and uranium dioxides form a complete series of solid solutions. The form...
Thorium and uranium dioxides form a complete series of solid solutions. The formation from the indiv...
Photochemically-induced preparation of nano-powders of crystalline uranium and/or thorium oxides and...
Thorium oxalate and uranium (IV) oxalate powders were prepared and characterized by chemical, TGA/DT...
International audienceThe thermal decomposition of actinides oxalates greatly depends on the oxidati...
ISBN 978-3-940237-50-7 / Oral Presentations 4: Chemicals, Polymers, Bio(macro)molecules & Biocomposi...
WOS: 000168385000014Thorium oxalate and uranium (IV) oxalate powders were prepared and characterized...
Mixed actinide dioxides are currently studied as potential fuels for several concepts associated to ...
In recent years, the hydrothermal conversion of actinide (IV) oxalates into nanometric actinide diox...
International audienceIn recent years, the hydrothermal conversion of actinide (IV) oxalates into na...
The nanostructure and phase evolution in low-temperature oxidized (40–250 °C), fine UO2 powders (<20...
Oxalate precipitation is a powerful technique for actinide oxide preparation at either laboratory or...
AbstractOxalate precipitation is a powerful technique for actinide oxide preparation at either labor...
Hydrothermal decomposition of actinide (IV) oxalates (An= Th, U, Pu) at temperatures between 95 and ...
Production of actinide oxide powder via dry thermal decomposition of corresponding oxalates is curre...
WOS: A1997XY86900005Thorium and uranium dioxides form a complete series of solid solutions. The form...
Thorium and uranium dioxides form a complete series of solid solutions. The formation from the indiv...
Photochemically-induced preparation of nano-powders of crystalline uranium and/or thorium oxides and...
Thorium oxalate and uranium (IV) oxalate powders were prepared and characterized by chemical, TGA/DT...
International audienceThe thermal decomposition of actinides oxalates greatly depends on the oxidati...
ISBN 978-3-940237-50-7 / Oral Presentations 4: Chemicals, Polymers, Bio(macro)molecules & Biocomposi...
WOS: 000168385000014Thorium oxalate and uranium (IV) oxalate powders were prepared and characterized...
Mixed actinide dioxides are currently studied as potential fuels for several concepts associated to ...
In recent years, the hydrothermal conversion of actinide (IV) oxalates into nanometric actinide diox...
International audienceIn recent years, the hydrothermal conversion of actinide (IV) oxalates into na...
The nanostructure and phase evolution in low-temperature oxidized (40–250 °C), fine UO2 powders (<20...