NdFeB permanent magnets have different life cycles, depending on the applications: from as
short as 2–3 years in consumer electronics to 20–30 years in wind turbines. The size of the …

Small-angle neutron scattering (SANS) is one of the most important techniques for
microstructure determination, being utilized in a wide range of scientific disciplines, such as …

Magnetism is a very fascinating and dynamic field. Especially in the last 30 years, there have
been many major advances in a range of areas from novel fundamental phenomena to new …

It is commonly understood that among the intermetallic phases used for permanent magnets,
practically none can fully realize its potential based on the intrinsic magnetic properties. We …

Ce substitution level in Nd-Fe-B magnets has been significantly increased via the binary
main phase (BMP) approach, ie sintering the mixture of Ce-free and Ce-containing RE 2 Fe …

The microstructure of grain boundaries (GBs) in the commercial NdFeB-based alloy for
permanent magnets has been studied. It is generally accepted that the unique hard …

For two decades, NdFeB based magnets have been a critical component in a range of
electrical devices engaged in energy production and conversion. The magnet shape and the …

Nd–Fe–B permanent magnets have been coated with 0.6 wt.% dysprosium and annealed at
various temperatures to study the impact of the temperature-dependent Dy diffusion …

Rare-earth metals, particularly neodymium, dysprosium, and praseodymium are becoming
increasingly important in the transition to a green economy due to their essential role in …

Abstract Multi-main-phase (MMP) Nd-Ce-Fe-B magnets prepared by sintering the mixture of
Ce-free and Ce-containing RE 2 Fe 14 B (RE, rare earth) powders have been found to …