Martensitic transformation and magnetic properties in Ni–Fe–Ga–Co magnetic shape memory alloys
Source abstract
Abstract
Abstract Ni–Fe–Ga–Co is a promising system for magnetic shape memory alloy applications, due to its good ductility, mobile twin boundaries and high transformation temperatures. Unlike previous studies which focused on compositions with a Ga content of 27 at.%, here the martensitic transformation and magnetic properties over a large composition range of Ni54−xFe20Ga26Cox, Ni54−xFe19Ga27Cox, Ni56−xFe17Ga27Cox and Ni54−xFe18Ga28Cox (x = 0, 2, 4) are investigated. The martensitic transformation temperature Tm and the Curie temperature Tc can be tailored in a wide range by changing composition and heat treatment. A coupling of martensitic and magnetic transformations at ∼90 °C is found for Ni52Fe17Ga27Co4. Additionally, the effect of thermal cycling on the martensitic transformation of single- and two-phase Ni–Fe–Ga–Co alloys is discussed. Furthermore, an intermediate face-centered cubic phase induced by powderization and transformed into a body-centered cubic phase by aging is reported. The saturation magnetization is significantly decreased by powderization, while recovered by the subsequent aging.
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Research context
OpenAlex topics: Shape Memory Alloy Transformations
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References (46)
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