The general expression for the magnetostatic energy of two magnetized nanoparticles with arbitrary shape and magnetization state is derived within the framework of a Fourier space approach. It is shown how the standard dipole-dipole interaction, valid for large interparticle distances, should be modified in order to take into account the shape anisotropy of each particle. Explicit computations are given for a simple system of two interacting cylinders. For magnetic nanowires, i.e., cylinders with a very large aspect ratio, a simple derivation shows that the interaction is of monopolar, rather than dipolar, nature. (C) 2003 Elsevier B.V. All rights reserved
Dense systems of magnetic nanoparticles may exhibit dipolar collective behavior. However, two fundam...
We report on the effect of interparticle magnetic interactions in an ensemble of superparamagnetic ma...
We report on the effect of interparticle magnetic interactions in an ensemble of superparamagnetic ma...
The general expression for the magnetostatic energy of two magnetized nanoparticles with arbitrary s...
A new formalism has been developed to describe the magnetostatic energy associated with particles of...
A new formalism has been developed to describe the magnetostatic energy associated with particles of...
A novel approach is presented for the computation of the magnetostatic energy of straight and bent c...
A novel approach is presented for the computation of the magnetostatic energy of straight and bent c...
The magnetostatic interaction energy between two magnetic elements of arbitrary,7 Shape is presented...
Numerical calculations of equilibrium state energies and local magnetic fields in planar ring-like n...
4 pages, proceeding of the JEMS 2008. To be published in the Journal of Magnetism and Magnetic Mater...
The elements of the magneto-dipole (MD) interaction matrix are calculated for a pair of oriented sph...
20 pages, 10 figures Published in Journal of Applied Physics. To be found at http://link.aip.org/lin...
We investigate the effect of anisotropy and weak dipolar interactions on the magnetization of an ass...
In a recent paper (Goode and Rowlands J. Magn. Magn. Mater. 295 (2005) 197-218), the micromagnetic e...
Dense systems of magnetic nanoparticles may exhibit dipolar collective behavior. However, two fundam...
We report on the effect of interparticle magnetic interactions in an ensemble of superparamagnetic ma...
We report on the effect of interparticle magnetic interactions in an ensemble of superparamagnetic ma...
The general expression for the magnetostatic energy of two magnetized nanoparticles with arbitrary s...
A new formalism has been developed to describe the magnetostatic energy associated with particles of...
A new formalism has been developed to describe the magnetostatic energy associated with particles of...
A novel approach is presented for the computation of the magnetostatic energy of straight and bent c...
A novel approach is presented for the computation of the magnetostatic energy of straight and bent c...
The magnetostatic interaction energy between two magnetic elements of arbitrary,7 Shape is presented...
Numerical calculations of equilibrium state energies and local magnetic fields in planar ring-like n...
4 pages, proceeding of the JEMS 2008. To be published in the Journal of Magnetism and Magnetic Mater...
The elements of the magneto-dipole (MD) interaction matrix are calculated for a pair of oriented sph...
20 pages, 10 figures Published in Journal of Applied Physics. To be found at http://link.aip.org/lin...
We investigate the effect of anisotropy and weak dipolar interactions on the magnetization of an ass...
In a recent paper (Goode and Rowlands J. Magn. Magn. Mater. 295 (2005) 197-218), the micromagnetic e...
Dense systems of magnetic nanoparticles may exhibit dipolar collective behavior. However, two fundam...
We report on the effect of interparticle magnetic interactions in an ensemble of superparamagnetic ma...
We report on the effect of interparticle magnetic interactions in an ensemble of superparamagnetic ma...