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We report the electromotive force (EMF) properties generated in 3d-transitionferromagnetic metal (FM = Fe, Co, and Ni80Fe20) films themselves under theirferromagnetic resonance (FMR). For Fe and Co films, the EMF due to theanomalous-Hall effect is dominantly generated under their FMR. Meanwhile, for aNi80Fe20 film, the EMF due to the inverse spin-Hall effect in the Ni80Fe20 filmitself under the FMR is mainly generated. This tendency is qualitativelyexplained with differences of the spin polarization, the spin Hallconductivity, the anomalous Hall conductivity, the magnetization saturation,and the resistivity of the FM films.

Electromotive forces generated in 3d-transition ferromagnetic metal films themselves under their ferromagnetic resonance