Sentences with phrase «magnetic materials for»

The ILL neutron scattering facilities provide an indispensable analytical tool for the analysis of the structure of novel conducting and magnetic materials for future electronic devices, the measurement of stresses in mechanical materials, and investigations into how complex molecular assemblies behave, particularly in a biological environment.

The interesting electronic and magnetic properties of this polymer will continue to be explored, with the aim of making highly magnetic materials for use in data storage applications, key to improving the performance of current computer technologies.

Not exact matches

It could eventually enable engineers and materials scientists to create parts with new functions and properties by depositing various combinations of materials — for example, printing out a magnetic metal next to a nonmagnetic one.

Metal detectors and separators, metal detection systems and magnetic separators are ideal for inspecting bulk material on conveyor belts, chutes or vibratory conveyors.

Integrated in the pneumatic conveying system for bulk material the GF 4000 metal detection unit detects and removes magnetic and non-magnetic metal contaminants.

The RAPID 4000 is used for the inspection of spice and grain materials to detect and reject magnetic and nonmagnetic metal contamination, even when enclosed in the product.

Metal detectors are most useful for the detection of magnetic and non-magnetic metals, but they reach their limits for example in the inspection of aluminium - coated packing materials.

Not just for looks, when wearing Cache Coeur's nursing wear you'll notice under the gorgeous French lace and detailed designs the unique magnetic clips, microfiber - materials and discreet openings specifically made to make your maternity life easier.

These trapped magnetic atoms are constantly rattling the bars of their cage, and this rattling seems to be responsible for the material's exceptionally favourable properties.

And I should have realized that the concepts and techniques I mastered in my undergraduate research on magnetic materials — the very things that got me hooked on research in the first place — were not particularly relevant for electrochemistry.

Before these discoveries, «we never had a generic method for creating truly 2D magnetic materials,» he says.

1H and 13C nuclear magnetic resonance spectra should be included in supplementary materials for all synthesized organic compounds.

The result was an undergraduate project studying magnetic materials, which are important for electric vehicles and wind turbines.

The discovery, to be published April 26 in the journal Nature, could have major implications for a wide range of applications that rely upon ferromagnetic materials, such as nanoscale memory, spintronic devices, and magnetic sensors.

For half a century, the Mermin - Wagner theorem has addressed this question by stating that if 2 - D materials lack magnetic anisotropy, a directional alignment of electron spins in the material, there may be no magnetic order.

The observation of an abnormal state of matter in a two - dimensional magnetic material is the latest development in the race to harness novel electronic properties for more robust and efficient next - generation devices.

One important step in understanding a physical system consisting of a large number of entities — for example, the atoms making up a magnetic material — is to identify among the many degrees of freedom of the system those that are most relevant for its physical behaviour.

The research team has successfully embedded a powerful magnetic memory chip on a flexible plastic material, and this malleable memory chip will be a critical component for the design and development of flexible and lightweight devices.

NiO is a promising material for spintronic devices, where signals are transmitted not by electrical currents but rather by spin waves, consisting of propagating disturbances in the ordering of magnetic materials, in a domino - like fashion.

«This provides another handle on how material properties can be tuned or controlled for practical applications in devices based on electrical and magnetic properties.»

• The rapid discovery of fluoride - based multiferroic materials, which could allow for generating electric fields that would support more efficient electronic devices or be electronic responsive under a magnetic field.

But in crystals of an iron - molybdenum oxide, a team led by Kei - Ichiro Kobayashi at the Joint Research Center for Atom Technology in Tsukuba, Japan, saw a 10 % drop in resistance when they placed the material in a strong magnetic field, considerably more than the one seen in comparable materials.

Since the operating temperature for fusion is in the hundreds of millions degrees Celsius, hotter than any known material can withstand, engineers found they could contain a plasma — a neutral electrically conductive, high - energy state of matter — at these temperatures using magnetic fields.

As such, this new synthetic route to oxide nanoparticles also shows great promise for a multitude of other catalytic, electrical, magnetic, or electrochemical processes, from novel cathodes to solution preparation of other types of ceramic materials.

Published by the Condensed Matter research group at the Nordic Institute for Theoretical Physics (NORDITA) at KTH Royal Institute of Technology in Sweden, the Organic Materials Database is intended as a data mining resource for research into the electric and magnetic properties of crystals, which are primarily defined by their electronic band structure — an energy spectrum of electrons motion which stem from their quantum - mechanical properties.

Kensuke Kobayashi (Professor, Graduate School of Science, Osaka University) and Sadashige Matsuo (Assistant Professor, Graduate School of Engineering, The University of Tokyo), in cooperation with research groups led by Teruo Ono (Professor, Institute for Chemical Research, Kyoto University) and Kazuhito Tsukagoshi (Research Fellow, International Center for Materials Nanoarchitectonics, National Institute for Materials Science), produced graphene samples capable of forming p - n junctions by combining gate electrodes and performed precise measurements of current - fluctuation («shot noise») in the graphene p - n junction in the QH regime in the strong magnetic fields and at low temperatures.

This will help in predicting the value of their magnetoelectric effect, which, in turn, will make it easier to find new and promising materials for industrial applications,» says the head of MIPT's Laboratory of physics of magnetic heterostructures and spintronics for energy - saving information technologies, Prof. Anatoly Zvezdin.

Applications of this informatics - driven approach are wide - ranging and cover, for example, the search for various functional materials with special electrical, optical and magnetic properties, including the 2016 Nobel Prize - winning topological states of matter — an important building block of a quantum computer.

Now the same research team has developed a new annealing protocol that allows the artificial material's full potential for highly complex magnetic interactions to be realized.

Each magnetic monopole comes with an electric dipole, but for most materials the electric polarization is so small that it can not be seen.

«The magnetic ions in materials such as cesium, iron, and manganese all make excellent candidates for generating and exploring this promising bound state,» Yevtushenko said.

Capture of all the transmitted electrons allows quantitative measurement of materials properties, such as internal electric and magnetic fields, which are important for use of the materials in memory and electronics applications.

Usually, magnetic materials are indispensable for creating magnetoresistance.

For example, VTT succeeded in using a permalloy ink to print a magnetically anisotropic material, which can be used in the manufacture of magnetic field sensors.

A research team led by the Department of Energy's Oak Ridge National Laboratory has confirmed magnetic signatures likely related to Majorana fermions — elusive particles that could be the basis for a quantum bit, or qubit, in a two - dimensional graphene - like material, alpha - ruthenium trichloride.

In this case, the solid material was a copper oxide, a member of the transition - metal oxide family of materials, which have wide - ranging applications for their electronic, magnetic and catalytic properties.

With the help of the Institute for Rock Magnetism (IRM), based at the University of Minnesota, the group was able to measure the magnetic materials within the speleothems to at a higher resolution and sensitivity than previously possible.

PARK Je - Geun, Associate Director at the Center for Correlated Electron Systems, within the Institute for Basic Science (IBS), working in collaboration with CHEONG Hyeonsik at Sogang University and PARK Cheol - Hwan at Seoul National University demonstrated the magnetic behavior of a special class of 2D materials.

«We did this work on NFO but, because the reduced coercivity is a direct result of the surface patterning, we think our technique would work for other magnetic materials as well.»

Being able to determine magnetic properties of materials with sub-nanometer precision would greatly simplify development of magnetic nano - structures for future spintronic devices.

A research team of Japan's National Institute for Materials Science (NIMS), RIKEN, Kobe Steel and JEOL RESONANCE successfully developed the NMR system equipped with world's highest magnetic field, 1,020 MHz, supported by the JST - SENTAN program «Development of Systems and Technology for Advanced Measurement and Analysis.»

Better MRI scanners could result from a trick in which a magnetic field springs up from nowhere, using materials famous for their link to invisibility cloaks

Cobalt, which is classed as a «transition metal», is widely used in the fabrication of permanent magnets as well as in magnetic recording materials for data storage applications.

Past examples of magnetic organic materials were either unstable in air or were mostly made of metal, making them unsuitable for linking together into a plastic, says chemist Robin Hicks of the University of Victoria, British Columbia, lead author of the study reporting the find in this week's Nature.

This method of making larger superparamagnetic crystals paves the way for the development of superparamagnetic bulk materials that can be reliably controlled by moderate external magnetic forces, revolutionizing drug delivery to tumors and other sites in the body that need to be targeted precisely.

Aurelien Manchon, an Associate Professor of Material Science and Engineering at the University, notes that one of the main reasons for the appeal of skyrmions is their ability to avoid defects or uneven patches in thin films that would normally trap or «pin» a magnetic charge.

Ever since Curie conjectured on «the symmetry in physical phenomena, symmetry of an electric field and a magnetic field,» it has long been a dream for material scientists to search for this rather unusual class of material exhibiting the coexistence of magnetism and ferroelectricity in a single compound known as a multiferroic compound.

The new structures are a test bed for theories of low dimensional materials physics, but more practically, the optical manipulation of electron charge and magnetic order can lead to new modes of solar energy conversion and flexible, transparent computation devices.

For the first time, a new class of magnetic materials, called topological magnon (or magnetic wave) insulators, was revealed.

For this material, disturbances to the electron spin orientation can propagate on the edge of the magnetic crystal, even when propagation through the bulk is blocked.