Iron (Fe) is the most important ferromagnetic element, not only for its high magnetic moment
and high Curie temperature but for its abundance as well. Fe-based magnetic materials are …

Permanent magnets (PM) find widespread application in energy conversion,
telecommunication, data storage, sensors, electronic gadgets, etc. Even though the market …

Currently, predominant high‐performance permanent magnets contain rare‐earth elements.
In the search for rare‐earth‐free alternates, body‐centered tetragonal Fe–Ni is notable. The …

The magnetocrystalline anisotropy energy of atomically ordered L1 0 FeNi (the meteoritic
mineral tetrataenite) is studied within a first-principles electronic structure framework. Two …

The production of locally atomically ordered FeNi (known by its meteoric mineral name,
tetrataenite) is confirmed in bulk samples by simultaneous conversion X‐ray and …

The chemically ordered L1 0-FeNi alloy is a promising candidate for next generation rare-
earth-free permanent magnets, which can revolutionize the high-performance magnets …

Abstract Tetragonal (L1 0) FeNi is a promising material for high-performance rare-earth-free
permanent magnets. Pure tetragonal FeNi is very difficult to synthesize due to its low …

The L1 0 crystal structure underlines an important class of chemically ordered alloys that
exhibits uniaxial magnetocrystalline anisotropy. The near-equiatomic L1 0-FeNi extracted …

L10-ordered FeNi, tetrataenite, found naturally in meteorites is a predilection for next-
generation rare-earth free permanent magnetic materials. However, the synthesis of this …

The structure and crystallographic texture formation processes in two Fe–Ga
magnetostrictive alloys during annealing of deformed samples under high magnetic field …