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Differences in the structure and magnetic properties of (Nd 0.75 Pr 0.25 ) 9.5 Fe 76 X 4 B 10.5 (X=Nb, Zr) ribbons by conventional and microwave-assisted annealing treatment

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Abstract Amorphous ribbons with (Nd0.75Pr0.25)9.5Fe76X4B10.5(X=Nb, Zr) nominal composition were annealed by conventional and microwave-assisted annealing furnaces, respectively. The thermal decomposition process, structure and magnetic properties of products were characterized by… Click to show full abstract

Abstract Amorphous ribbons with (Nd0.75Pr0.25)9.5Fe76X4B10.5(X=Nb, Zr) nominal composition were annealed by conventional and microwave-assisted annealing furnaces, respectively. The thermal decomposition process, structure and magnetic properties of products were characterized by a thermal differential scanning calorimeter (DSC), X-ray diffraction (XRD) and a vibrating sample magnetometer (VSM). The addition of Nb and Zr increased the glass-forming ability (GFA) of as-spun ribbons. The proportion of Nd2Fe14B and α-Fe could be adjusted with power from 800 to 2000 W in microwave annealing process, during which the well-coupling between the soft and hard magnetic phase and higher coercivity reached up to 780.2 and 815.4 kA/m for (Nb,Zr)-doped alloys. The best magnetic properties of ribbons could be obtained by annealing at 650 °C for 10 min under the microwave power of 2000 W.

Keywords: magnetic properties; properties ribbons; assisted annealing; microwave assisted; structure magnetic; conventional microwave

Journal Title: Journal of Rare Earths
Year Published: 2017

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