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Accepted PapersThe section containing accepted papers prior to their appearance in the forthcoming issues of Materials Science-Poland, is available on: Ahead of Print Articles. Current IssueThe current issue (Vol. 42, No. 4, 2024) of the journal of Materials Science-Poland is now available on Sciendo. Back IssuesStructure Analysis and Local Magnetic Parameters of Magnetoresistance Tunnel JunctionsCheol Gi Kim1, Chong-Oh Kim,1, Yongkang Hua1, J. Kanak2, T. Stobiecki,2, S. Ogata,3, M. Tsunoda3 and M. Takahashi3 Magnetic Properties of Fe/Si and Co/Si MultilayersT. Luciński1, M. Kopcewicz2, A. Hütten3, H. Brückl3, S. Heitmann3, T. Hempel3 and G. Reiss3 Rotational Anisotropy in Exchange-biased NiFe/FeMn BilayersDo-Guwn Hwang Exchange Coupling Field in Top, Bottom, and Dual Type IrMn Spin Valves Coupled to CoFeJ. Y. Hwang and J. R. Rhee The Effect of Underlayers on Grain Orientation and Magnetic Properties of Barium-ferrite Thin FilmDong Hyoun Kim1, In Tak Nam1, Yang Ki Hong2 AbstractThe effect of employing various sputtered underlayers in order to optimize the characteristics of Barium ferrite (BaM) thin films for magnetic recording media have been studied. BaM thin films and underlayers (Fe, Cr, Al2O3, Fe2O3, ZnFe2O4, TiO2) were prepared by rf/dc magnetron sputtering on (100) oriented bare Si substrate, and were crystallized by post-annealing. All the BaM films, except BaM/Fe/Si film, attained nearly the same perpendicular and in-plane coercivities. Perpendicular anisotropy was observed in BaM/Fe/Si film. The BaM/TiO2/Si exhibits the highest coercivity. However, regardless of the underlayer, BaM grains are randomly oriented. By adopting ZnFe2O4 as an underlayer, the interdiffusion of Si from substrate was prohibited to some degree. The microstructure of BaM in BaM/TiO2/Si was strongly dependent on both the microstructure of TiO2 underlayer and the total sputtering gas pressure. The control of an underlayer microstructure is one of the important factors to control grain size and shape of the BaM layer. ![]() ![]() Effective Magnetostriction in Nanocrystalline AlloysA. ¦lawska-Waniewska Micromagnetic Simulation of Multiphase Nanocrystalline Material with Different Boundary ConditionsO. Nedelko1, A. ¦lawska-Waniewska1, Y. Labaye2 Influence of In Dilution Level on Magnetic Mroperties and Photoconductivity of Cd1-yCr2-2xIn2x+ySe4 Magnetic SemiconductorsB.T. Cięciwa, L. J. Maksymowicz, M. Lubecka, H. Jankowski, J. Sokulski, Z. Sobków Magnetic Properties of the RMn12-xTx Alloys in High Magnetic Field #W. Suski1,2, B. Belan3, A. Gilewski1, T. Mydlarz1, K. Wochowski2 High Frequency Magneto-Impedance Effect in Glass-Coated Amorphous Co83.2 B3.3 Si5.9 Mn7.6 MicrowiresHeebok Lee2, Yong-Seok Kim1, Seong-Cho Yu2 Large Magnetocaloric Effect in Perovskite Manganites: MagneticEntropy Changes Above 300 KManh-Huong Phan1, Seong-Cho Yu1, A.N. Ulyanov1,2 and H.K. Lachowicz3 Effects of an External Magnetic Field on the Perpendicular Magnetic Anisotropy of Electrodeposited Micro-patterned Arrays
W. Y. Jeung, D. H. Choi, and K. H. Lee Magnetometry of Monoatomic Layers and Spin Electronics Elements J. Wrona, T. Stobiecki, M. Czapkiewicz, R. Rak Magnetism of Nanocrystalline and Bulk FexNi23-xB6 (x=0, 1, 22 and 23) Alloys -- Experiment and TheoryB. Idzikowski and A. Szajek The Effect of Axial Dc-field on Transverse Permeability in Co-based Metallic Glass Ribbons
H. K. Lachowicz1, M. KuĽmiński1, Seong-Cho Yu2
Microstructure and Magnetic Properties of NdFeB Magnets Fabricated by Current-Applied Pressure-Assisted ProcessY.B. Kim1, H.T. Kim1,S.H. Cho1,2, G.A. Kapustin3 |
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