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Saturday, November 14, 2020 | History

2 edition of Magnetic and magnetoelastic properties of antiferromagnets and superconductors found in the catalog.

Magnetic and magnetoelastic properties of antiferromagnets and superconductors

V. V. Eremenko

Magnetic and magnetoelastic properties of antiferromagnets and superconductors

  • 263 Want to read
  • 13 Currently reading

Published by Cambridge Scientific Publishers in [Cambridge, U.K.] .
Written in English

  • Antiferromagnetism,
  • Superconductors -- Magnetic properties,
  • Superconductors -- Elastic properties,
  • Magnetostriction

  • Edition Notes

    StatementV.V. Eremenko and V.A. Sirenko.
    SeriesPhysics reviews -- v. 23, pt. 1
    ContributionsSirenko, V. A.
    LC ClassificationsQC761.5 .E74 2007
    The Physical Object
    Paginationv, 304 p. :
    Number of Pages304
    ID Numbers
    Open LibraryOL23194295M
    ISBN 101904868541
    ISBN 109781904868545
    LC Control Number2009367032

      New measurements of atomic-scale magnetic behavior in iron-based superconductors by researchers at the Department of Energy’s Oak Ridge National Laboratory and Vanderbilt University are challenging conventional wisdom about superconductivity and magnetism.. The study published in Advanced Materials provides experimental evidence that local magnetic fluctuations can influence the Author: Advanced Science News. deals with twin structure activity and its effect on magnetic hysteresis loop. Finally, our research of the induced magnetic moment in granular superconductors is reported in section four. 1. The effect of dynamic relaxation Soon after the discovery of high-Tc superconductivity, we started with investigation of their magnetic properties. Magnetic properties of drilled bulk high-temperature superconductors filled with a ferromagnetic powder Gregory P. Lousberg1,5, J.-F. Fagnard1,2, X. Chaud3, M. Ausloos4, P. Vanderbemden1, and B. Vanderheyden1 1 SUPRATECS, Department of Electrical Engineering and Computer Science (B28), University of Li`ege, Belgium. One of the properties of superconductors most easy to demonstrate, and also the most dazzling, is the Meissner Effect. Superconductors are strongly diamagnetic – that is to say that they will repel a magnet. The superconductor used in this demonstration is yttrium-based (YBa2Cu3O7).

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Magnetic and magnetoelastic properties of antiferromagnets and superconductors by V. V. Eremenko Download PDF EPUB FB2

Get this from a library. Magnetic and magnetoelastic properties of antiferromagnets and superconductors. [V V Eremenko; V A Sirenko]. One characteristic property of these compounds is the existence of strong correlations between the magnetic moments of the uranium ions and the conduction electrons.

These correlations lead to unusual magnetic properties at low temperatures. By applying external Cited by: 2. Soon after the book went out of print.

However, it continues to be widely used and quoted, and due to the ever growing interest in "Magnetic Flux Structures in Superconductors", a second edition is now being made available. An extensive new chapter gives a comprehensive review of developments relevant to high-temperature by: applications.

Superconductors are used in magnetic levitation. This eliminates friction between the train and its tracks. On the track there are North and South pole on the sides. In between the tracks there are superconductors. The poles and the superconductors repel each other forcing the train to float on top of the superconductors.

Magnetic and magnetoelastic properties of antiferromagnets and superconductors in the vicinity of phase transitions induced by a magnetic field are considered. At these conditions inhomogeneous states appear in antiferromagnets, similar to either intermediate state type I superconductors or the mixed one in type II superconductors.

A spectrum of coupled electromagnetic, spin and elastic waves in a two-sublattice antiferromagnet with weak ferromagnetism is theoretically investigat Cited by: 1. Superconductivity and magnetic fields are normally seen as rivals – very strong magnetic fields normally destroy the superconducting state.

Physicists at the Paul Scherrer Institute have now Author: Paul Piwnicki. Magnetoelastic coupling in iron superconductors J • Physics 4, s A microscopic theoretical model brings insight into the underlying physics behind the complex magnetic and structural transitions of some pnictide superconductors.

Free Online Library: Experimental techniques for low-temperature measurements; cryostat design, material property, and superconductor critical-current testing.(Brief Article, Book Review) by "SciTech Book News"; Publishing industry Library and information science Science and technology, general Books Book reviews.

Uses for Superconductors Magnetic-levitation is an application where superconductors perform extremely well. Transport vehicles such as trains can be made to "float" on strong superconducting magnets, virtually eliminating friction between the train and its tracks.

Magnetization studies were carried out for the novel FeSe 1−x Te x superconductors (0 ≤ x ≤ 1) to investigate a behavior of the intrinsic magnetic susceptibility χ in the normal state. The magnetic susceptibility was found to increase gradually with Te content.

The temperature dependencies of the magnetic susceptibility χ and its anisotropy Δ χ = χ ∥ − χ ⊥ were measured for Cited by: 7. Antiferromagnetism exists near superconductivity in the electronic phase diagram of a variety of seemingly unrelated unconventional superconductors.

Unconventional superconductors are those which are not described by BCS theory. Antiferromagneti. A Classification of Superconductors where RE=Gd,Tb,Dy,ErandalsoRERh 4B 4,whereRE= Nd, Sm, Tm) demonstrate near T N the antiferromagnetic alignment of rare-earth magnetic moments in the superconducting state of the system.

The most important result is the anomalous behavior of the upper critical field as a function ofFile Size: 1MB. This special issue of SUST focuses on the magnetic properties of all forms of superconductors, including low and high temperature and bulk, conductor and thin film forms of materials.

The cuprates, pnictides, MgB 2 and Nb-based superconductors will be included in this focus issue. Magnetic properties are fundamental to the basic and applied. Abstract. Although initially discovered and investigated by ONNES (e.g., [Onn 11]) in the period between and as a zero-resistivity phenomenon (and ultimately exploited as such), it was soon recognized that the essential physics of superconductivity was couched in terms of electromagnetism and, in particular, in terms of the responses of superconductors to applied magnetic : E.

Collings. Superconducting Magnets Type II superconductors such as niobium-tin and niobium-titanium are used to make the coil windings for superconducting magnets. These two materials can be fabricated into wires and can withstand high magnetic fields.

Typical construction of the coils is to embed a large number of fine filaments (20 micrometers diameter) in a copper matrix. Magnetic Order in Superconductors. The effects of magnetic impurities and the possibility of magnetic ordering in superconductors has had a rich and interesting history, and we have had a longstanding interest in investigating such systems.

Magnetic Properties of the Reentrant Ferromagnetic Superconductor HoMo 6 S 8, J. Lynn, G. Shirane. Electromagnetic Properties of Superconductors. Alt'IBEGAOKAR (*) and L. KaDA~X0F~ (**) D~stitule /or Theoretical Physics, University of Copenhagen - Copenhagen (ricevnto il 19 Luglio ) Summary.

-- A method of calculating ~he response of superconductors to weak electromagnetic felds is. Magnetoelastic Quantum Fluctuations and Phase Transitions in the Iron Superconductors Article in Physical Review Letters (4) July with 7 Reads How we measure 'reads'.

The magnetic resonance imagers (MRIs) in the hospital rely on steady and reliable magnetic fields. Even higher magnetic fields are required in the chemical analysis of drugs and potential drugs—applications in the area of biochemistry, pharmacology, and analytical chemistry.

The new insight regarding the coexistence of superconductivity and atomic magnetism will aid in the development of a predictive theory for high-temperature superconductivity, one that can assist.

The development of superconducting magnet science and technology is dependent on higher magnetic field strength and better field quality. The high magnetic field is an exciting cutting-edge technology full of challenges and also essential for many significant discoveries in science and technology, so it is an eternal scientific goal for scientists and by: 1.

Superconductor: Superconductors are the materials whose resistance become immeasurably small or actually become zero below a critical temperature, Tc. Example- (La, Sr)2 CuSO4 with Tc= 36k Superconductors Properties: Zero resistance: No resistanc. A superconducting magnet is an electromagnet made from coils of superconducting must be cooled to cryogenic temperatures during operation.

In its superconducting state the wire has no electrical resistance and therefore can conduct much larger electric currents than ordinary wire, creating intense magnetic fields.

Superconducting magnets can produce greater magnetic fields than all. Magnetic Properties - Free download as Powerpoint Presentation .ppt), PDF File .pdf), Text File .txt) or view presentation slides online. Short powerpoint presentation about magnetic properties of material such as metal, ceramic and polymer.

Abstract. In this lecture we would like to demonstrate that the magnetisation and magnetostriction studies in the vicinity of orientation phase transitions in antiferromagnets, induced by a magnetic field (the so-called spin-flop transition), supplemented by the data on the pressure dependences of the transition field H c, Neel temperature T N and Curie temperature Θ, may elucidate the nature Author: V.

Eremenko, V. Sirenko. magnetic fluctuations cause an attractive force between electrons, nor how supercon-ductivity and ferromagnetism can coexist.

It is therefore of utmost importance to study the magnetic fluctuations, or more general, the magnetic properties, in UGe 2, URhGe, and UIr, in combination with non-Fermi-liquid behavior. This thesis has. By their magnetic properties.

Type I superconductors: those having just one critical field, H c, and changing abruptly from one state to the other when it is reached.; Type II superconductors: having two critical fields, H c1 and H c2, being a perfect superconductor under the lower critical field (H c1) and leaving completely the superconducting state to a normal conducting state above the.

PH Introduction to superconductors 12 The magnetic properties of superconductors In addition to the loss of resistance, superconductors prevent external magnetic field from penetrating the interior of the superconductor. This expulsion of external magnetic fields takes place for magnetic fields that are less than the critical field.

MagneticFile Size: KB. High Temperature Superconductors Physics | Our department has an experimental research effort in the area of low-temperature physics, with emphasis on the study of the transport and magnetic behaviors of the high temperature superconductors.

The picture at the right [from A. Sleight, Science ()] shows the typical structure of such a material. The Magnetic Properties of Superconductors by Temperature Superconductors are considered to be perfect diamagnets. A diamagnet is a material that shows repulsive magnetic effects when it is put.

Influence of magnetic materials on transport properties of applied superconductors Abstract. Magnetic materials can help to improve the performance of practical superconductors on the macro/micro scale as magnetic diverters and also on the nanoscale as effective pinning centres.

broaden the understanding of the magnetic properties of high-Tg superconductors, in the areas of reversible magnetization, free energy and flux creep. These properties represent characteristics of superconductors at various regions on the H-T plane, as discussed later in this chapter (Section ).

By studying the magnetic and magnetoelastic properties, it is established that, as the temperature is lowered, Sm1−x SrxMnO3 single crystals (x=, ) undergo spontaneous phase transitions.

In superconductivity, a type-II superconductor is a superconductor which exhibits an intermediate phase of mixed ordinary and superconducting properties at intermediate temperature and fields above the superconducting phases.

It also features the formation of magnetic field vortices with an applied external magnetic occurs above a certain critical field strength H c1. Properties of the technical type II superconductors As described in other lectures [2], the key parameters of critical field, temperature and current have rather different origins.

Critical temperature and field are essentially determined by the chemistry of the material, whereas critical current is determined by its Size: KB. Abstract: High temperature superconductivity in iron pnictides and chalcogenides emerges when a magnetic phase is suppressed.

The multi-orbital character and the strength of correlations underlie this complex phenomenology, involving magnetic softness and Cited by: This thesis investigates the many extraordinary physical properties of the candidate p-wave ferro-magnetic superconductors UCoGe and URhGe, and proposes theoretical predictions for p-wave superconductors yet to be discovered.

In particular, we carry out angular dependent quantumAuthor: Christopher Lorscher. Magnetic Resonance in Electron-doped Cuprate Superconductors. In conventional superconductors, the interaction that pairs the electrons to form the superconducting state is mediated by lattice vibrations.

In high-transition temperature copper oxides superconductors it is generally believed that magnetic excitations play the fundamental role in. Modeling of Magnetisation and Intrinsic Properties of Ideal Type-II Superconductor in External Magnetic Field Oleg A.

Chevtchenko*1, Johan J. Smit1, D.J. de Vries2, F.W.A. de Pont2 1Technical University of Delft, The Netherlands 2Comsol BV Rontgenl DX Zoetermeer, The NetherlandsCited by: 1. magnetic configurations U 3+ and U4+. 3. Cooper pairing and ferromagnetism Soon after the elaboration of the BCS theory of s-wave superconductivity, [14] the problem of coexistence of SC and FM was discussed by V.

Ginzburg. He noticed that finding SC in ferromagnets is as probable as finding non-ferromagneticSC in large magnetic fields [15 Cited by: Magnetic. Properties. Rianne Alipio Juvy Joyce Gonzales Trina Loria.

Magnetism. The phenomenon by which materials assert an attractive or repulsive force or influence on other materials Magnetic forces are generated by moving electrically charged particles Within a magnetic field, the force of the field itself exerts a torque that tends to orient the magnetic dipoles with the field.The Meissner Effect When a material makes the transition from the normal to superconducting state, it actively excludes magnetic fields from its interior; this is called the Meissner effect.

This constraint to zero magnetic field inside a superconductor is distinct from the perfect diamagnetism which would arise from its zero electrical resistance.

Zero resistance would imply that if you.