Sentences with phrase «materials used in the field»

In this section you can list your problem - solving abilities and your knowledge of the tools and materials used in the field.

Index Editors are required to possess a solid knowledge of the methods and materials used in the field.

Not exact matches

According to Bartel, SDM's customers, especially those in the aerospace and medical fields, are asking for and using aluminum and titanium, lightweight metals with considerable material strength.

If one considers only the forms in which it was transmitted, the methods used by the legalists, the material of its content, and the restricted field of its application as the whole field of positive law, then its role is quite limited.

® Eagle products are valued leaders in every field, whether they are used for foodservice, industrial material handling, retail display, cleanroom, healthcare or pharmaceutical applications.

That partnership also gives Boston Beer the ability to use the Red Sox logo in marketing materials, as well as a large Samuel Adams sign in right field, replacing a Budweiser logo that towered above Fenway Park for nine years.

This includes learning to use many more hands - on materials and activities (that are not practical in a large classroom with many children and only one adult), checking the regulations in your area, finding out about home school groups, places to visit for your field trips, etc..

By 3 - D printing a deformable material containing iron particles in a lattice structure, their metamaterials can be compressed using a magnetic field.

The model derives from a general lattice field theory, which is typically used to describe the quantum behavior of electrons in magnetic and electronic materials.

Nanoplasmonic materials have attracted the attention of biologists, chemists, physicists and material scientists, with possible uses in a diverse array of fields, such as biosensing, data storage, light generation and solar cells.

Surprisingly, Jarillo - Herrero and colleagues report, the same material can also be nudged into becoming an insulator — in which electrons are stuck in place — by using an electric field to remove electrons from the material.

Respondents in this year's survey pointed to five main causes of the field's less than favorable reputation: drug and product recalls such as the withdrawal of Avandia; safety issues such as the discovery of problems with raw material from China used in medical products; scandals, including evidence that pharmaceutical companies have failed to release data from trials whose results cast doubts on their drugs» safety and efficacy; lawsuits brought against companies that failed to warn patients of problems with their products; and ethical issues such as kickbacks for physicians promoting specific medications.

The resulting disordered atomic network and its physical properties resemble those seen in some glassy materials, which has led many in the field to use them in nuclear research.

The findings, which report the use of magnetic permeability - how easily a magnetic field will magnetize a material - are published today, Friday 11th September, in the Journal of Physics D: Applied Physics.

Researchers from IMDEA Nanoscience, the Autonomous University of Madrid, the Madrid Institute of Materials Science (CSIC) and the University of the Basque Country describe in the journal Nature Physics this week how to create a powerful magnetic field using this new material.

The team used the strain induced by an electric field applied to a piezoelectric material (which deforms mechanically in response to an electric field) to manipulate the chirality of the domain wall.

The problem is solved by using magnetic fields, which confine and thermally insulate the charged particles in the fuel, keeping them away from material surfaces.

Because of the high magnetic field required to produce the magnetoresistance effect, Kobayashi says, the material isn't ready to be used in data storage devices.

High - pressure synthesis (over 10 GPa) is not a commonly used method in the field of materials science, write the researchers in their study published in the Journal of the American Chemical Society.

«If we can understand how to take this tool box and use it in the design of new structures or the synthesis of new materials, that opens a whole new field of chemistry that so far has been dark to us, because we did not know how to actually visualize what is going on.»

Using this material, the researchers were able to analyse in detail the response of rhodopsin, the pigment protein underlying vision, and phosphodiesterase, and for this reason they believe it can be useful in the field of optogenetics in the future.

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.

The traditional approach is to observe a «residual» effect in the material's response (hysteresis loop) using a SPM, for example, the material retains residual electric polarization after removal of an external electric field.

However, in reality this synthesis method could be used for a wide range of materials outside the biomedical field.»

Now, an international theory and computational team led by Cesare Franchini from the University of Vienna, find that multiple quantum interactions can coexist in a single real material and show how an electric field can be used to control them.

«We can now take linear nano - materials and direct how they are organized in two dimensions, using a DNA origami platform to create any number of shapes,» explains NYU Chemistry Professor Nadrian Seeman, the paper's senior author, who founded and developed the field of DNA nanotechnology, now pursued by laboratories around the globe, three decades ago.

Furthermore, the researchers from Aalto University and University of Jyväskylä have recently shown how DNA origamis can be used in efficient fabrication of custom - shaped metal nanoparticles that could be used in various fields of material sciences.

Generally speaking, magnetic fields can be used to change the magnetization of a magnetic material, much like a bar magnet can magnetize an otherwise nonmagnetic sewing needle, and can even reverse its magnetization completely in some cases.

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.

Andrews says the team's research marks an important turning point in the field because it represents a significant advance toward solving the cathode problem while also highlighting the inherent advantages of using much more imaginative, metastable materials like this new form of vanadium pentoxide.

Although computer models of archaeological sites are ideal software tools for managing spatially referenced data and commonly used to yield insights which contribute to the protection of heritage materials, some scientists question their credibility, calling for these long - term trends be «ground truthed» in order to ensure that calculated rates of change reflect observed phenomena «in the field».

The materials and elements used to form these structures allow us forecast new trends in solotronics - a field of experimental electronics and spintronics of the future, based on operations occurring on a single - atom level.

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.

However, chemical engineers at the University of Guadalajara (UdeG), in Mexico, developed a new technology based on thermosensitive nanoparticles (nano - hydrogels) to use these materials in the field of biomedicine, as an alternative to achieve controlled release of anticancer drugs.

Because the process of solidifying metals produces branch - like internal micro-patterns that disturb the chemical homogeneity of cast materials, having a better understanding of the bias field's role in their formation opens pathways for engineers to make improvements in cast and welded materials commonly used in everything from automobiles and airplanes to medical instruments.

From hosting a webinar series on the use of specific scientific methods to support human rights research, to the development of teaching materials to integrate human rights into STEM curricula, from assessing the extent to which marginalized populations are represented in STEM fields, to cultivating a human rights interest group within a member organization, there are many ways in which Coalition members can further the mission of the Coalition within their communities, organizations and in collaboration with others.

Professor Alvaro Mata, from Queen Mary's School of Engineering and Materials Science, said: «The technique opens the possibility to design and create biological scenarios like complex and specific cell environments, which can be used in different fields such as tissue engineering by creating constructs that resemble tissues or in vitro models that can be used to test drugs in a more efficient manner.»

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

Budker, who works on sensitive magnetic field detectors, and Folman, who builds «atom chips» to probe and manipulate atoms, focused in this work on using these magnetometers to study new materials.

ARL created a generalized model using an energetic formulation approach, which was key in identifying two important mechanisms for enabling high bending motion in soft biological actuators: (i) tuning physical properties (mechanical and geometric) via exploiting the interplay between the materials and dynamic nonlinearities to augment the motion; and (ii) highlighting the electromechanical coupling between the electrical field and nonlinear structural stiffness through the distributive actuation circuitries.

In the paper, they describe the use of band engineering and multi strain field fluctuation to enhance the figure of merit for the material.

Using a method that they published earlier this year, the team arranged metal - oxide nanosheets into a single plane within a material by using a magnetic field and then fixed them in place using a procedure called light - triggered in - situ vinyl polymerization, which essentially uses light to congeal a substance into a hydrUsing a method that they published earlier this year, the team arranged metal - oxide nanosheets into a single plane within a material by using a magnetic field and then fixed them in place using a procedure called light - triggered in - situ vinyl polymerization, which essentially uses light to congeal a substance into a hydrusing a magnetic field and then fixed them in place using a procedure called light - triggered in - situ vinyl polymerization, which essentially uses light to congeal a substance into a hydrusing a procedure called light - triggered in - situ vinyl polymerization, which essentially uses light to congeal a substance into a hydrogel.

Apart from their application in the field of food containers, the proteins obtained can be used to produce biocompatible materials.

«One of the challenges in this field,» said the researcher Pedro Guerrero, «is to obtain materials that can be processed using additive manufacturing, 3D printing.

Part of the funding will be used to train the next generation of materials scientists familiar with the challenges of growing high quality crystals in this rapidly expanding field.

He also has several patents awarded or pending, served on numerous scientific advisory and review committees, organized several national and international conferences (including the 2006 Materials Research Society Fall meeting with more 5000 attendees), and edited 6 books in the field of materials characterization using synchrotron rMaterials Research Society Fall meeting with more 5000 attendees), and edited 6 books in the field of materials characterization using synchrotron rmaterials characterization using synchrotron radiation.

Nadrian C. Seeman, of New York University in the U.S., is the founding father of structural DNA nanotechnology, a field that exploits the structural properties of DNA to use it as a raw material for the next generation of nanoscale circuits, sensors, and biomedical devices.

In a new development, Technische Universität Wien has managed to use electrical fields to control the magnetic oscillations of certain ferrous materials.

It plans to use newly available superconducting materials and technology that can create magnetic fields four times stronger than any in use now.

PNNL researchers will use it to make measurements and gain understanding never before possible in fields such as synthesis of materials and biomedical studies.