The production of metal–ceramic nanodispersion by mechanical milling of powders through the displacement reaction Fe2O3+M→Fe+M-oxide (with M: Al, Ti) was studied. The reaction progress with milling time was followed by recording the temperature and pressure during the process. The samples were characterized by X-ray diffraction and Mossbauer spectroscopy at the intermediate and final stages. In both cases self-sustained reactions were observed with different activation times. The results confirm that mechanical work at room temperature yields the reduction of hematite by Ti and Al. The final oxides were identified as Ti2O3 and Al2O3, respectively. The dependence of the intermediate and final stages on the milling conditions and the starting...
Powder of alpha-Fe2O3 was mechanochemically treated in a planetary ball mill in an air atmosphere. S...
Industrial grade ferrotitanium (Fe–Ti) was used for the first time as the raw material to synthesize...
In this work we investigate the mechanism of product formation of the aluminothermic reaction of Fe2...
The production of metal–ceramic nanodispersion by mechanical milling of powders through the displace...
AbstractIn this work, formation of iron oxide nanoparticles by mechanochemical reactions in differen...
The synthesis of nanometer-sized [MATH]-Al2O3-metal composites can be performed by room temperature ...
In this study, the effect of mechanical activation on the synthesis of Fe3Al/Al2O3 nanocomposite has...
Mechanochemical reactions in the system FeTiO3-Si have been investigated as functions of the powder ...
The mechanochemical treatment of alpha-Fe2O3 powder was done concurrently in air and oxygen atmosphe...
The mechanochemical treatment of alpha-Fe2O3 powder was done concurrently in air and oxygen atmosphe...
AbstractIn this work, formation of iron oxide nanoparticles by mechanochemical reactions in differen...
α-Fe2O3 nanocrystallines were prepared by direct transformation via high energy ball milling treatme...
The reaction between hematite and aluminum in presence of allumina as diluent activated by Ball Mill...
The path of the reaction between Fe2O3 and Si, activated by high energy ball milling, has been inves...
The path of the reaction between Fe2O3 and Si, activated by high energy ball milling, has been inves...
Powder of alpha-Fe2O3 was mechanochemically treated in a planetary ball mill in an air atmosphere. S...
Industrial grade ferrotitanium (Fe–Ti) was used for the first time as the raw material to synthesize...
In this work we investigate the mechanism of product formation of the aluminothermic reaction of Fe2...
The production of metal–ceramic nanodispersion by mechanical milling of powders through the displace...
AbstractIn this work, formation of iron oxide nanoparticles by mechanochemical reactions in differen...
The synthesis of nanometer-sized [MATH]-Al2O3-metal composites can be performed by room temperature ...
In this study, the effect of mechanical activation on the synthesis of Fe3Al/Al2O3 nanocomposite has...
Mechanochemical reactions in the system FeTiO3-Si have been investigated as functions of the powder ...
The mechanochemical treatment of alpha-Fe2O3 powder was done concurrently in air and oxygen atmosphe...
The mechanochemical treatment of alpha-Fe2O3 powder was done concurrently in air and oxygen atmosphe...
AbstractIn this work, formation of iron oxide nanoparticles by mechanochemical reactions in differen...
α-Fe2O3 nanocrystallines were prepared by direct transformation via high energy ball milling treatme...
The reaction between hematite and aluminum in presence of allumina as diluent activated by Ball Mill...
The path of the reaction between Fe2O3 and Si, activated by high energy ball milling, has been inves...
The path of the reaction between Fe2O3 and Si, activated by high energy ball milling, has been inves...
Powder of alpha-Fe2O3 was mechanochemically treated in a planetary ball mill in an air atmosphere. S...
Industrial grade ferrotitanium (Fe–Ti) was used for the first time as the raw material to synthesize...
In this work we investigate the mechanism of product formation of the aluminothermic reaction of Fe2...