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Magnet anisotropy

Pastor G M, Dorantes-Davila J, Pick S and Dreysse H 1995 Magnetic anisotropy of 3d transition-metal clusters Phys. Rev. Lett. 75 326... [Pg.2405]

From the write and read process sketched so far, some requirements for MO media can be derived (/) a high perpendicular, uniaxial magnetic anisotropy K in order to enable readout with the polar Kerr effect (2) a magnetoopticady active layer with a sufficient figure of merit R 0- where R is the reflectivity and the Kerr angle (T) a Curie temperature between 400 and 600 K, the lower limit to enable stable domains at room temperature and the upper limit because of the limited laser power for writing. [Pg.143]

Oriented In-Plane Texture. In this kind of film the properties (H and in the various in-plane directions (texture and nontexture directions) are different. The texture of the film can be supported by the texture of the substrate and the crystal lattice can be smaller in the texture direction than in the transverse direction. This can be the source for strain-induced magnetic anisotropy (magnetostriction). It is also found that the crystal is aligned in the texture direction (92). [Pg.184]

Magnetic Anisotropy Energy. There are several kinds of magnetic anisotropy energy and perhaps the most weU known is the magnetocrystaUine anisotropy. Only a crystalline soHd has this property because the energy is dictated by the symmetry of the crystal lattice. For example, in bcc Fe, the easy axis is in a (100) direction and in fee Ni, it is in a (111) direction. [Pg.366]

Hot pressing to produce substantial texture and magnetic anisotropy via plastic deformation is accompHshed by a process referred to as... [Pg.382]

Tellurium also improves the properties of electrical steels by aiding in the magnetic anisotropy, malleable cast iron (77), and spheroidal (graphitic) cast irons (see also Metal surface TiiEATiffiNTs). [Pg.392]

Figure 1 The principal sources of structural data are the NOEs, which give information on the spatial proximity d of protons coupling constants, which give information on dihedral angles < i and residual dipolar couplings, which give information on the relative orientation 0 of a bond vector with respect to the molecule (to the magnetic anisotropy tensor or an alignment tensor). Protons are shown as spheres. The dashed line indicates a coordinate system rigidly attached to the molecule. Figure 1 The principal sources of structural data are the NOEs, which give information on the spatial proximity d of protons coupling constants, which give information on dihedral angles < i and residual dipolar couplings, which give information on the relative orientation 0 of a bond vector with respect to the molecule (to the magnetic anisotropy tensor or an alignment tensor). Protons are shown as spheres. The dashed line indicates a coordinate system rigidly attached to the molecule.
The barium ferrite was found to have an increase in magnetic anisotropy, as in the nickel ferrite, but its overall effect on magnetization was less because of greater magnetocrystalline anisotropy. The shock modification caused reduced crystallite size and local damage that resulted in increased microwave absorption. [Pg.171]

The SH, SCHs, and weakly directing halogens cause small shifts, which to a large extent are determined by magnetic anisotropy effects, especially in the case of the halogens. Attempts have been made to estimate these effects for the other thiophenes. Except for orthohydrogens, these effects are usually very small. [Pg.10]

B. Heinrich and J.F. Cochran, Ultrathin metallic magnetic films magnetic anisotropies and exchange interactions. Advances in Physics 42, 523 (1993). [Pg.243]

The calculation of the magnetic anisotropy of non-cubic materials requires an expansion up to 1 /c . Except in the case of fully relativistic calculations, the expansion is never carried out consistently and only the spin-orbit perturbation is calculated to second order (or to infinite order), without taking account of the other terms of the expansion. In this section, we shall follow Gesztesy et al. (1984) and Grigore et al. (1989) to calculate the terms H3 and H. Hz will be found zero and H4 will give us terms that must be added to the second order spin-orbit calculation to obtain a consistent semi-relativistic expansion. [Pg.454]

I thank P. Bruno for his explanation of the calculation of magnetic anisotropy, and Ph. Sainctavit, L. Varga and D. Cabaret for their thorough readings of the manuscript. [Pg.456]

Chemical applications of magnetic anisotropy studies on transition metal complexes. S. Mitra, Prog. Inorg. Chem., 1977, 22, 310-408 (160). [Pg.38]


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See also in sourсe #XX -- [ Pg.45 ]




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Anisotropy effect magnetic

Anisotropy in the magnetic properties

Anisotropy magnetic axial

Anisotropy magnetic field

Anisotropy magnetic potential parameters

Anisotropy magnetic properties

Anisotropy magnetic rhombic

Anisotropy magnetic susceptibility

Anisotropy magnetization distribution, magnetic

Anisotropy of magnetic susceptibility

Anisotropy of magnetic susceptibility and

Anisotropy, elastic magnetic, crystalline

Anisotropy, magnetic compounds

Anisotropy, magnetic rare earth-iron

Bond magnetic anisotropy

Chemical Applications of Magnetic Anisotropy Studies on Transition Metal Complexes

Chemical shift anisotropies magnetic field dependency

Chemical shift magnetic anisotropy, effect

Crystalline anisotropy energy, magnetic

Effective magnetic field parameter anisotropy

Europium magnetic anisotropy

Lanthanide magnetic anisotropy

Local magnetic anisotropy

Magnetic Anisotropy and Magnetization Distribution

Magnetic anisotropies, interparticle interactions

Magnetic anisotropy

Magnetic anisotropy Ising-type

Magnetic anisotropy Table

Magnetic anisotropy alloys

Magnetic anisotropy barrier

Magnetic anisotropy chelate complexes

Magnetic anisotropy constants

Magnetic anisotropy description

Magnetic anisotropy energy

Magnetic anisotropy energy constant

Magnetic anisotropy higher field

Magnetic anisotropy magnetization vectors

Magnetic anisotropy measurements

Magnetic anisotropy nuclear spin states

Magnetic anisotropy parameters

Magnetic anisotropy prediction

Magnetic anisotropy problems

Magnetic anisotropy quadrupole broadening

Magnetic anisotropy reference compound

Magnetic anisotropy relaxation

Magnetic anisotropy results from dilute

Magnetic anisotropy saturation

Magnetic anisotropy solve

Magnetic anisotropy solvents

Magnetic anisotropy tautomerism

Magnetic anisotropy terbium

Magnetic anisotropy theory

Magnetic anisotropy, coercivity and saturation magnetization

Magnetic anisotropy, magnetostriction

Magnetic induced anisotropy

Magnetic mesophase anisotropy

Magnetic shielding anisotropy

Magnetic surface anisotropy

Magnetism magnetic anisotropy

Magnetism: axial anisotropy

Nuclear magnetic resonance anisotropy

Nuclear magnetic resonance spectroscopy anisotropy

Nuclear magnetic resonance spectroscopy chemical shift anisotropy

Nuclear magnetic shielding anisotropy

Optical magnetic anisotropy

Ordering and Magnetic Anisotropy

Perpendicular magnetic anisotropy

Perpendicular magnetic anisotropy multilayers

Quantifying the Magnetic Anisotropy

Random magnetic anisotropy

Random magnetic anisotropy model

Shape anisotropy, single-domain magnetic

Single-ion magnetic anisotropies

Solid-state nuclear magnetic chemical shift anisotropy

Solid-state nuclear magnetic resonance anisotropy

Thin magnetic anisotropy

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