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Synthesis of Ni-Fe thin films by electrochemical deposition technique and characterization of their microstructures and surface morphologies
Author(s) -
Umut Saraç,
Malik Kaya,
M. Celalettin Baykul
Publication year - 2017
Publication title -
turkish journal of physics
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 0.169
H-Index - 26
eISSN - 1303-6122
pISSN - 1300-0101
DOI - 10.3906/fiz-1706-8
Subject(s) - materials science , deposition (geology) , crystallite , scanning electron microscope , microstructure , thin film , crystallization , electrochemistry , electroplating , grain size , chemical engineering , electrolyte , analytical chemistry (journal) , nanotechnology , composite material , metallurgy , electrode , chemistry , layer (electronics) , paleontology , sediment , engineering , biology , chromatography
Microstructural features and surface morphologies of Ni-Fe thin films fabricated by the electrochemical deposition technique have been experimentally studied. Ni-Fe thin films have been deposited under different deposition potentials and FeSO$_{4}$ concentrations. Energy dispersive X-ray measurements demonstrate that the Fe content decreases (increases) as the deposition potential (FeSO$_{4}$ concentration) is enhanced. All of the produced films exhibit an anomalous codeposition behavior. The effects of deposition potential and FeSO$_{4}$ concentrations on the degree of anomalous codeposition have been also characterized. X-ray diffraction studies reveal that the films have face-centered cubic crystallographic structures with [111] preferred crystallographic orientation regardless of the applied deposition conditions. However, the crystallization and the crystallite size of the films are affected by changing of the FeSO$_{4}$ concentration and the deposition potential. The results of scanning electron microscopy analyses verify that the surface structure of the film electroplated from the electrolyte with higher FeSO$_{4}$ concentration under higher deposition potential exhibits a more homogeneous and dense structure with smaller grain sizes.

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