We present a computer-simulation study of the effect of the distribution of energy barriers in an anisotropic magnetic system on the relaxation behavior of the magnetization. While the relaxation law for the magnetization can be approximated in all cases by a time logarithmic decay, the law for the dependence of the magnetic viscosity with temperature is found to be quite sensitive to the shape of the distribution of barriers. The low-temperature region for the magnetic viscosity never extrapolates to a positive no-null value. Moreover our computer simulation results agree reasonably well with some recent relaxation experiments on highly anisotropic single-domain particles
We present measurements of the energy flux associated with the relaxation of the remanent magnetizat...
In nanomagnetism, the studies of magnetic nanoparticle systems are of particular interest from both ...
Anisotropy barrier distributions of single domain particle systems are an important issue in the nan...
We present a computer-simulation study of the effect of the distribution of energy barriers in an an...
We study the effects of the magnetic field on the relaxation of the magnetization of small monodomai...
The magnetic relaxation and hysteresis of a system of single domain particles with dipolar interacti...
In this article we present a phenomenological model which simulates very well the mag¿ netic relaxat...
In this article we present experimental results on the magnetic relaxation in different systems (sin...
We critically discuss relaxation experiments in magnetic systems that can be characterized in terms ...
Although most of the experimental work dealing with the magnetic relaxation of systems characterized...
The most challenging problem in physics of disordered systems of magnetic nanoparticles is the inves...
Although most of the experimental work dealing with the magnetic relaxation of systems characterized...
The relaxation of the magnetization is calculated for isotropic and anisotropic magnets. For NdFeB m...
AbstractWe report in this study the effect of the competition between cubic and uniaxial anisotropie...
A first-principle micromagnetic and statistical calculation of viscous remanent magnetization (VRM) ...
We present measurements of the energy flux associated with the relaxation of the remanent magnetizat...
In nanomagnetism, the studies of magnetic nanoparticle systems are of particular interest from both ...
Anisotropy barrier distributions of single domain particle systems are an important issue in the nan...
We present a computer-simulation study of the effect of the distribution of energy barriers in an an...
We study the effects of the magnetic field on the relaxation of the magnetization of small monodomai...
The magnetic relaxation and hysteresis of a system of single domain particles with dipolar interacti...
In this article we present a phenomenological model which simulates very well the mag¿ netic relaxat...
In this article we present experimental results on the magnetic relaxation in different systems (sin...
We critically discuss relaxation experiments in magnetic systems that can be characterized in terms ...
Although most of the experimental work dealing with the magnetic relaxation of systems characterized...
The most challenging problem in physics of disordered systems of magnetic nanoparticles is the inves...
Although most of the experimental work dealing with the magnetic relaxation of systems characterized...
The relaxation of the magnetization is calculated for isotropic and anisotropic magnets. For NdFeB m...
AbstractWe report in this study the effect of the competition between cubic and uniaxial anisotropie...
A first-principle micromagnetic and statistical calculation of viscous remanent magnetization (VRM) ...
We present measurements of the energy flux associated with the relaxation of the remanent magnetizat...
In nanomagnetism, the studies of magnetic nanoparticle systems are of particular interest from both ...
Anisotropy barrier distributions of single domain particle systems are an important issue in the nan...