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The high-entropy alloy (Al 25 Fe 30 Mn 25 Ni 20 ) 1− xNdx(all in at.%) (AlFeMnNi) 1− xNdx) was prepared by vacuum arc melting (AM) and casting method (CM). X-Ray Diffraction (XRD) and Scanning Electron Microscopy, transmission electron microscope and Integrated Energy-Dispersive X-ray spectroscopy were used to study the structure of our system. The (Al 25 Fe 30 Mn 25 Ni 20 ) 1− xNdxcrystallises in a Face-centred cube and centred cubic (BCC), depending on the  x  ( x  = 0.00,  x  = 0.01 at.% Nd). The increase of Neodymium (0.01 at.% Nd) content results in the formation of BCC structure. The chemical composition analysis of FCC and BCC crystal structures, their lattice constants demonstrate that the formation of a single BCC solid solution between 760°C and 1480°C. The Korringa–Kohn–Rostoker Method and Green's function combined with coherent potential approximation were used to study the magnetoelectronic properties of (Al 25 Fe 30 Mn 25 Ni 20 ) 1− xNdx. We have obtained the value optimised of lattice parameter 2.9 Å and it is near to that obtained by experimental value using High Score programme and results XRD experimental.

Experimental and simulation study of microstructure and magnetic properties of (AlFeMnNi) 1− x Nd x