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Ferromagnetism

Ferromagnetism may occur as the result of strong spin-spin interactions. This requires unpaired spins and high order. The ferromagnetic susceptibility t can be given as  [Pg.207]

In this expression 0is the Curie temperature 6 0 corresponds to ferromagnetic order 6 0 means antiferromagnetic order, and is called Neel temperature. [Pg.207]

This has the same form as the Curie equation, and the Curie constant is given by  [Pg.372]

The value of is proportional to the number of magnetic dipoles present. The susceptibility is thus given in several forms. In the derivation above, N is the number of dipoles per unit volume, and the susceptibility is called the volume susceptibility, Xv in m . The mass susceptibility, Xm. in which N refers to the number of magnetic dipoles per unit mass, is given by Xv/p, where p is the density in kgm . The susceptibility of one mole of the substance, the molar susceptibility, Xmoiar is given by (Xv m) where is the molar volume of the material. [Pg.372]

The magnetisation of a compound, M, is the dipole moment per unit volume. For ferromagnetic compounds, the saturation magnetisation, Ms, when all of the dipoles are aligned, can be measured and used to estimate the effective magnetic moment on the atoms in the stmcture when the unit cell is known. [Pg.372]

The first theory to account for the existence of ferromagnetic solids was proposed by Weiss. He suggested that an internal molecular field existed [Pg.372]

If there is significant overlap of the 3d orbitals then, by the requirements of the Pauli exclusion principle, the spins must be antiparallel (/ 0). If the separation is too large then [Pg.604]

Chromium dioxide (Cr02) is at present the most important ferromagnetic ceramic. It is used as magnetic media in audio and video recording tapes. In this application, the Cr02 is not in the pure form but is usually doped to improve its properties. [Pg.605]

For a ferromagnetic material, relationship between magnetic flux density and magnetization [Pg.810]

Schematic illustration of the mutual alignment of atomic dipoles for a ferromagnetic material, which will exist even in the absence of an external magnetic field. [Pg.810]

For nickel, computation of the number of atoms per unit volume [Pg.810]

Saturation Magnetization and Flux Density Computations for Nickel [Pg.810]

Calculate (a) the saturation magnetization and (b) the saturation flux density for nickel, which has a density of 8.90 g/cm.  [Pg.810]

There are two basic magnetically ordered structures, which can be distinguished from each other by the presence or absence of permanent macroscopic magnetization, namely ferromagnetic and aniiferrimagnetic. [Pg.344]

Ferromagnetics are intensively macroscopically magnetized in an external field and are strongly drawn into it. They have the greatest application techniques. Ferromagnetic [Pg.344]

The presence of noncoupled d- and f-electrons in atoms does not yet completely provide the conditions necessary for ferromagnetism to occur. For example, such elements as Cr, Mn, Pt, etc., also have noncoupled electrons, but they are not ferromagnetic. In some cases they possess antiferromagnetic behavior. [Pg.347]


NmI point The temperature at which magnetic susceptibility becomes normal. See anti-ferromagnetism and ferromagnetism. [Pg.271]

The case of thin-skin regime appears in various industrial sectors such as aerospace (with aluminium parts) and also nuclear in tubes (with ferromagnetic parts or mild steel components). The detection of deeper defects depends of course on the choice of the frequency and the dimension of the probe. Modelling can evaluate different solutions for a type of testing in order to help to choose the best NDT system. [Pg.147]

High selective performance of the sensor also enable to detect surface cracks in ferromagnetic and non-magnetic welded connections under rust or dirt layer without prior cleaning. [Pg.288]

Building and testing of probes for an optimal coating control of ferromagnetic materials. [Pg.290]

Remote Field Eddy Current (RFEC) technology is a variation of the conventional eddy-current method, developed for detecting flaws at any point in the walls of (particularly) ferromagnetic (Fe) tubes and pipes from the inside diameter. [Pg.319]

The figures show typical signals obtained from an ID inspection of non-ferromagnetic tubing with artificial flaws, Figure 1, and actual results on steel tubing. Figure 2. [Pg.319]

The same instrument inspects both steel and non-ferromagnetic tubing... [Pg.323]

P.Y. lotibert, D. Miller, D. Placko, and E. Savin. New eddy current probe and associated preprocessings for 3d image reconstruction in non ferromagnetic tubes testing. In To be published in the proceedings of the Seventh ECNDT, 1998. [Pg.333]

Standard Practice for Electromagnetic Examination of Ferromagnetic Steel Wire Rope, ASTM Standard E 1571-94. [Pg.337]

The experimental tests have validated the theoretical model for eylindrical products in non ferromagnetic material, therefore with a long solenoid ... [Pg.356]

The result of this study can be exploited in the industrial control practice of long conductor, non ferromagnetic product. [Pg.356]

New Eddy Current Probe and Associated Preprocessing for 3D Image Reconstruction in Non Ferromagnetic Tube Testing. [Pg.357]

D. Miller, D.Placko "Pre-processing of signals delivered by a new eddy current sensor for non ferromagnetic tubes testing" in IMTC 96... [Pg.364]

The eddy current method allows to evalute the state of stress in ferromagnetic material. The given method is used for determining own stress as well as that formed in effect of outside load. With regard to physical principles of own stress analysis, the dependence between the magnetic permeability and the distance between atomic surfaces is utilized. [Pg.382]

Fn Fig. 2. it is shown, that the stress can be evaluated by placing the probe directly on the tested surface as well as at a certain distance from it. Test results indicate to the possibility of evaluating stress in parts covered with a protective layer (vanish or non-ferromagnetic electrolytic coating). [Pg.384]

Magnetic particles is one of the most used nondestructive testing techniques in industry. It allows detection and localization of surfacic and subsurfacic defects of ferromagnetic pieces by making conspicuous leakage fields by a magnetic developer. [Pg.635]

Two such new and possibly powerful methods are described in this paper. They allow for the detection of 1. extremely small ferromagnetic inclusions in the volume of a non ferromagnetic workpiece and 2. non ferromagnetic segregations in the volume of a non ferromagnetic workpiece. [Pg.988]

The Ising model is isomorphic with the lattice gas and with the nearest-neighbour model for a binary alloy, enabling the solution for one to be transcribed into solutions for the others. The tlnee problems are thus essentially one and the same problem, which emphasizes the importance of the Ising model in developing our understanding not only of ferromagnets but other systems as well. [Pg.524]

Wlien 2 g > (Eaa BB binary alloy corresponds to an Ismg ferromagnet (J> 0) and the system splits into two phases one rich in A and the other rich in component B below the critical temperature T. On the other hand, when 2s g < (Eaa+ bb > system corresponds to an antiferromagnet the ordered phase below the critical temperature has A and B atoms occupying alternate sites. [Pg.529]

Iiifomiation about the behaviour of the 3D Ising ferromagnet near the critical point was first obtained from high- and low-temperatnre expansions. The expansion parameter in the high-temperatnre series is tanli K, and the corresponding parameter in the low-temperatnre expansion is exp(-2A ). A 2D square lattice is self-dual in the sense that the bisectors of the line joining the lattice points also fomi a square lattice and the coefficients of the two expansions, for the 2D square lattice system, are identical to within a factor of two. The singularity occurs when... [Pg.539]

Kramers H A and Wannier G H 1941 Statistics of the two-dimensional ferromagnet part I Phys. Rev. 60 252... [Pg.556]

Domb 0 and Sykes M F 1957 Specific heat of a ferromagnetic Substance above the Ourie point Phys. Rev. 129 567... [Pg.556]

Figure A2.5.16. The coexistence curve, = KI(2R) versus mole fraction v for a simple mixture. Also shown as an abscissa is the order parameter s, which makes the diagram equally applicable to order-disorder phenomena in solids and to ferromagnetism. The dotted curve is the spinodal. Figure A2.5.16. The coexistence curve, = KI(2R) versus mole fraction v for a simple mixture. Also shown as an abscissa is the order parameter s, which makes the diagram equally applicable to order-disorder phenomena in solids and to ferromagnetism. The dotted curve is the spinodal.
The little atomic magnets are of course quantum mechanical, but Weiss s original theory of paramagnetism and ferromagnetism (1907) [7] predated even the Boln atom. He assumed that in addition to the external magnetic field Bq, there was an additional internal molecular field B. proportional to the overall magnetization M of the sample. [Pg.633]

Equation (A2.5.20) is the Curie-Weiss law, and the temperature at which the magnetic susceptibility becomes infinite, is the Curie temperature. Below this temperature the substance shows spontaneous magnetization and is ferromagnetic. Nonnally the Curie temperature lies between 1 and 10 K. However, typical ferromagnetic materials like iron have very much larger values for quantum-mechanical reasons that will not be pursued here. [Pg.633]

Smolyaninov I P, Zayats A V and Davis C C 1997 Near-field second-harmonic imaging of ferromagnetic and ferroelectric materials Opt. Lett. 22 1592-4... [Pg.1304]

Other magnetic measurements of catalysts include electron paramagnetic resonance and magnetic susceptibility. Although those are not as common as NMR, they can be used to look at the properties of paramagnetic and ferromagnetic samples. Examples of these applications can be found in the literature [87. [Pg.1794]


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Advanced ferromagnets

Alloys ferromagnetism

Alloys, ferromagnetic

Amorphous ferromagnetic materials

Anisotropy ferromagnetic relaxation

Annelated macrocyclic polyradicals ferromagnetic-ferrimagnetic coupling

Anti-ferromagnetic coupling

Anti-ferromagnetic structure

Anti-ferromagnetism

Anti-ferromagnets

Antiferromagnetic to ferromagnetic transition

Antiferromagnetism and ferromagnetism in transitional-metal compounds

Band ferromagnetism

Basal plane ferromagnet

Bulk ferromagnetic properties

Canted-spin ferromagnetic

Canted-spin ferromagnetism

Chalcogenides ferromagnetic

Characterization ferromagnetic materials

Chromate , ferromagnets

Chromium , ferromagnets

Chromium ferromagnetic

Cobalt ferromagnet

Colloid dispersion, ferromagnetic

Contribution ferromagnetic

Copper complexes ferromagnetic

Curie point ferromagnetic

Curie temperature ferromagnetic

Design of ferromagnetic coupling among organic free radicals and high-spin molecules in molecular assemblies

Distinguishable ferromagnetic phases

Double exchange mechanism, ferromagnetic

Double exchange mechanism, ferromagnetic perovskites

Double ferromagnetism

Exchange ferromagnetism

Fermi itinerant ferromagnet

Ferroelectric Ferromagnet Multiferroic on the Basis of EuTiO3 Nanowires

Ferromagnet

Ferromagnet

Ferromagnet Ovchinnikov

Ferromagnet classic

Ferromagnet ordering

Ferromagnet polaronic

Ferromagnet spontaneous magnetization

Ferromagnet, spin polarization

Ferromagnet-insulator-superconductor

Ferromagnet/superconductor

Ferromagnetic

Ferromagnetic

Ferromagnetic Kondo lattice

Ferromagnetic Liquid Crystals

Ferromagnetic Materials with Localized Magnetic Moments

Ferromagnetic alignment

Ferromagnetic alloy semiconductors

Ferromagnetic antiferromagnetism

Ferromagnetic behavior

Ferromagnetic bonding

Ferromagnetic ceramics

Ferromagnetic chain

Ferromagnetic chain behavior

Ferromagnetic clusters

Ferromagnetic colloids

Ferromagnetic compounds

Ferromagnetic coupling

Ferromagnetic coupling units

Ferromagnetic crystal

Ferromagnetic domain walls

Ferromagnetic domains

Ferromagnetic effect

Ferromagnetic elements

Ferromagnetic energy

Ferromagnetic enhanced

Ferromagnetic exchange

Ferromagnetic exchange interactions

Ferromagnetic ferrites

Ferromagnetic film, Curie temperature

Ferromagnetic films

Ferromagnetic garnets

Ferromagnetic impurities

Ferromagnetic insulator

Ferromagnetic interactions

Ferromagnetic intermolecular interactions

Ferromagnetic intermolecular interactions crystals

Ferromagnetic iron oxide

Ferromagnetic layers

Ferromagnetic linking

Ferromagnetic liquid

Ferromagnetic martensite phase

Ferromagnetic material, 376------------------fibers

Ferromagnetic materials

Ferromagnetic materials Faraday rotation

Ferromagnetic materials organic

Ferromagnetic materials various properties

Ferromagnetic materials, colloidal

Ferromagnetic materials, colloidal dispersion

Ferromagnetic materials, magnetic transition

Ferromagnetic materials, magnetic transition temperatures

Ferromagnetic measurements

Ferromagnetic metal oxides

Ferromagnetic metal/semiconductor

Ferromagnetic metals

Ferromagnetic metals, carbon

Ferromagnetic metals, carbon formation

Ferromagnetic molecular crystals

Ferromagnetic moment, rare earth elements

Ferromagnetic nanocrystals

Ferromagnetic nanomaterials

Ferromagnetic nanoparticles

Ferromagnetic neutron peaks

Ferromagnetic nickel

Ferromagnetic order

Ferromagnetic ordering

Ferromagnetic ordering temperature

Ferromagnetic organic polymers

Ferromagnetic oxides

Ferromagnetic particle relaxation

Ferromagnetic particle relaxation Fokker-Planck

Ferromagnetic particle relaxation calculations

Ferromagnetic particle relaxation. Gilbert

Ferromagnetic particle size

Ferromagnetic particles

Ferromagnetic perovskites

Ferromagnetic phase transition

Ferromagnetic phases Curie temperature

Ferromagnetic phases, identification

Ferromagnetic polymer

Ferromagnetic pyrochlores

Ferromagnetic quantum critical point

Ferromagnetic region

Ferromagnetic resonance

Ferromagnetic resonance , metal

Ferromagnetic resonance linewidth

Ferromagnetic resonance spectra

Ferromagnetic short-range

Ferromagnetic spin

Ferromagnetic spin exchange

Ferromagnetic spin fluctuations

Ferromagnetic spiral (

Ferromagnetic state

Ferromagnetic structure

Ferromagnetic substances

Ferromagnetic superconductors

Ferromagnetic superexchange interactions

Ferromagnetic suppression

Ferromagnetic surface

Ferromagnetic susceptibility

Ferromagnetic synthesis

Ferromagnetic systems

Ferromagnetic thin film

Ferromagnetic to paramagnetic

Ferromagnetic transition

Ferromagnetic transition temperature

Ferromagnetic transition typical cases

Ferromagnetic, domain rotation

Ferromagnetic, ferrimagnetic and

Ferromagnetic-ferrimagnetic coupling

Ferromagnetic-ferroelectric properties

Ferromagnetically Coupled Systems

Ferromagnetically coupled

Ferromagnetically coupled units

Ferromagnetics

Ferromagnetism 78 metal-dithiolene complexes

Ferromagnetism Curie temperature

Ferromagnetism Induced by Azide Bridges

Ferromagnetism and Antiferromagnetism

Ferromagnetism antiferromagnetic material

Ferromagnetism borides

Ferromagnetism carbides

Ferromagnetism characteristics

Ferromagnetism coercivity

Ferromagnetism domain

Ferromagnetism example molecules

Ferromagnetism hysteresis

Ferromagnetism hysteresis loops

Ferromagnetism identification

Ferromagnetism impurities

Ferromagnetism in Organic Systems

Ferromagnetism lanthanides

Ferromagnetism metal-organic ferromagnet

Ferromagnetism microstructures

Ferromagnetism model

Ferromagnetism molecules

Ferromagnetism nitrides

Ferromagnetism prediction

Ferromagnetism proposal

Ferromagnetism saturation magnetization

Ferromagnetism temperature dependence

Ferromagnetism, antiferromagnetism and ferrimagnetism

Ferromagnetism, freeon theory

Ferromagnetism, near criticality

Ferromagnetism, organic

Ferromagnetism/ferromagnetic ordering

Ferromagnets

Ferromagnets canted

Ferromagnets uniaxial

Ferromagnets, dielectric compounds

Ferromagnets, organic

Fluctuating ferromagnetic phases

Fokker-Planck equation ferromagnetic particles

Free ferromagnet

Freeon Theory of Ferromagnetism

Gadolinium ferromagnetism

Ground state of the Heisenberg ferromagnet

Half-metallic ferromagnet

Half-metallic ferromagnetism

Hartree-Fock ferromagnetic state

Heisenberg ferromagnet

High-Curie temperature ferromagnetism

High-Curie temperature ferromagnetism films

High-spin molecules ferromagnetic coupling design

Hysteresis ferromagnetic

Identification of Ferromagnetic Phases

Inorganic chemistry ferromagnetism

Ionic ferromagnetic

Iron ferromagnet

Ising ferromagnet

Ising ferromagnets

Isotropic ferromagnet

Itinerant Ferromagnetic Materials

Itinerant electron ferromagnets

Itinerant ferromagnet

Itinerant ferromagnetism

Longitudinal field, ferromagnetic particles

Magnetic ceramics ferromagnetic materials

Magnetic excitations ferromagnetic films

Magnetic ferromagnetic

Magnetic heat capacity ferromagnet

Magnetic moment, ferromagnetic

Magnetic moment, ferromagnetic relaxation

Magnetic properties bulk ferromagnets

Magnetic properties ferromagnetic systems

Magnetic properties ferromagnetism

Magnetic resonance ferromagnetic

Magnetic structure ferromagnetic

Magnetism ferromagnetism

Magnetism, antiferromagnetism ferromagnetism

Magnetism: ferromagnetic interactions

Magnetocaloric ferromagnetism

Magnetoelectric Effect in Ferromagnetic Ferroelectrics

Magnets, molecular Ferromagnetism

Material ferromagnets

Measurements Techniques for Identification of Ferromagnetism

Metal organic ferromagnet

Minerals ferromagnetic

Molecular ferromagnet

Molecular ferromagnetics

Molecular ferromagnets

Monodomain ferromagnetic particles

Nanocomposite ferromagnetic

Neel relaxation single-domain ferromagnetic particles

Nickel ferromagnet

Nickel ferromagnetism

Non-ferromagnetic

Numerical solutions, ferromagnetic

Order, magnetic ferromagnetic

Order-disorder theory ferromagnetism

Organic ferromagnet

Paramagnetism and Ferromagnetism

Phase ferromagnet

Phase ferromagnetic

Polymeric ferromagnets

Possible Mechanisms of Defects-Induced Ferromagnetic Order Near the Surface

Powder ferromagnetic

Properties ferromagnetic

Remarks on Theories of Ferromagnetism

Saturation ferromagnetic

Short-range ferromagnetic interactions

Soft ferromagnetic materials

Solid ferromagnetic

Spin Waves for Ferromagnets

Spin waves in the Heisenberg ferromagnet

Spin-glass to a ferromagnetic phase

Spinel ferrites ferromagnetic

Strain modulated ferromagnetic resonance

Strong ferromagnetism

Superparamagnetism of Ferromagnetic Nanoparticles

Surface magnetism ferromagnetic films

The Ferromagnetic Domain

The Freeon Theory of Ferromagnetism

Theories of ferromagnetism

Transformation ferromagnetic

Transition from antiferromagnetic to ferromagnetic

Transition from ferromagnetic insulator

Transition metals ferromagnetism

Transition metals, ferromagnetic

Transition probability, ferromagnetic

Typical Cases Leading to Ferromagnetic Interaction

Uniaxial anisotropy ferromagnetic particles

Uniaxial ferromagnet

Very weak itinerant ferromagnetism

Weak canted-spin ferromagnetism

Weak ferromagnet

Weak ferromagnetic component

Weak ferromagnetic compound

Weak ferromagnetism

Weak ferromagnets

Weak itinerant ferromagnetism

Weak-itinerant ferromagnets

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