TY - JOUR
T1 - Magnetization Reversal Mechanism Evaluated by Rotational Hysteresis Loss Analysis for the Thin Film Media
AU - Takahashi, Migaku
AU - Shimatsu, T.
PY - 1992/9
Y1 - 1992/9
N2 - In the present study, rotational hysteresis loss analysis is carried out for cocrra, and CoCrPt thin film media to evaluate the influence of microstructure on coercive force through the measurement of magnetic anisotropy. In each media, the magnitudes of defined as a magnetic field where rotational hysteresis loss diminishes remain almost a constant value of the values of coercive force. With increasing coercive force, the of coercive force gradually becomes smaller than that of switching field of magnetization by torque analysis. Through the analysis and it is suggested that the coercive force In each media is strongly dependent on the degree of intergranular exchange coupling and/or interactions. While, in and CoCrPt coercive force has a dependence on rotational hysteresis integral however, in CoCrTa films, any correlation between was not observed.
AB - In the present study, rotational hysteresis loss analysis is carried out for cocrra, and CoCrPt thin film media to evaluate the influence of microstructure on coercive force through the measurement of magnetic anisotropy. In each media, the magnitudes of defined as a magnetic field where rotational hysteresis loss diminishes remain almost a constant value of the values of coercive force. With increasing coercive force, the of coercive force gradually becomes smaller than that of switching field of magnetization by torque analysis. Through the analysis and it is suggested that the coercive force In each media is strongly dependent on the degree of intergranular exchange coupling and/or interactions. While, in and CoCrPt coercive force has a dependence on rotational hysteresis integral however, in CoCrTa films, any correlation between was not observed.
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U2 - 10.1109/20.179785
DO - 10.1109/20.179785
M3 - Article
AN - SCOPUS:0026911783
SN - 0018-9464
VL - 28
SP - 3285
EP - 3287
JO - IEEE Transactions on Magnetics
JF - IEEE Transactions on Magnetics
IS - 5
ER -