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This work is devoted to the theoretical study of the temperature dependence of the blocking, the coercive force of the spontaneous magnetization and the size of the magnetite core core / shell nanoparticles of magnetite / titanomagnenit. It is shown that the coercive force and the saturation magnetization of a spontaneous increase with increasing volume fraction of magnetite core, which is consistent with experimental data. This work is devoted to the theoretical study of the temperature dependence of the blocking, the coercive force of the spontaneous magnetization and the size of the magnetite core core / shell nanoparticles of magnetite / titanomagnenit. It is shown that the coercive force and the saturation magnetization of a spontaneous increase with increasing volume fraction of magnetite core, which is consistent with experimental data. (Mogensen, 1968). Later Hjelm-Kwist and Ramdohr (см. [1]) showed that separation of magnetite nano are a common feature of the collapse of the titanomagnetite. For example, at the initial stage of decay titanomagnetites an increase in the coercive force and the residual saturation magnetization to saturation magnetization , some authors [2] show to the small dimensions of the phases. The development process of disintegration increases the size of the phases and a sharp drop и . In this paper, we attempt, within the previously developed model [3.4] two-phase nanoparticles to analyze the effect of decay processes in the hysteresis characteristics titanomagnetite.

Blocking Temperature and Hysteresis Characteristics of the Decay Products Titanomagnetites