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III: Materials Education and Infrastructure
Pages 35-42

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From page 35...
... Second, these basic disciplines, through materials science and engineering, have countless industrial applications that ben efit society. From seat belts and computers to items as basic and mundane as coffee filters, materials science and engineering contributes to the creation of products that allow us to perform daily tasks more safely and efficiently.
From page 36...
... In addition to the Materials World Modules program, Northwestern University has recently embarked on a collaborative effort with the Intel corporation to promote student participation in science fairs at seven sites in six states. This "Winning with Inquiry" initiative will involve the use of Materials World Modules, introducing students to materials science and technology.
From page 37...
... Today, we sit at another threshold in the development of neutron scattering. Pulsed spalIation neutron sources, based on neutrons produced by bombarding heavy metal atoms with high-energy protons, are demonstrating exceptional promise in neutron scattering from studies of superconductivity to nondestructive measurements of internal stresses in turbine engines.
From page 38...
... Toward a Fourth-Generation Light Source David E Moncton Associate Laboratory Director, Adivanced[Photon Source Argonne National Laboratory Historically, x-ray research has been propelled by the existence of urgent and compelling scientific questions and by the push of powerful and exquisite source NOTE: This article was prepared Mom written material provided to the Solid State Sciences Committee by the speaker.
From page 39...
... Third-generation sources of light in the hard x-ray range have been constructed at three principal facilities: the European Synchrotron Radiation Facility (ESRF) in France; the Super Photon Ring 8-GeV (or Spring- in Japan; and the Advanced Photon Source (APS)
From page 40...
... But existing linear accelerators, including those at Argonne National Laboratory, Brookhaven National Laboratory, and the Stanford Synchrotron Radiation Laboratory, offer a cost-effective way to reduce technical risk and begin to explore the extraordinary scientific possibilities that lie ahead.
From page 41...
... An example of a smaller facility is the DOE-supported Materials Research Laboratory at the University of TIlinois, Urbana-Champaign. Characterization capabilities include Auger electron spectroscopy, Rutherford backscattering, x-ray photoelectron spectroscopy, transmission electron microscopy, scanning electron microscopy, atomic force microscopy, secondary ion mass spectrometry, and x-ray diffraction.
From page 42...
... It is critical to realize the important role that smaller-scale fa cilities play reports of microcharacterization appear in 30 percent of recently published materials physics articles and in 45 percent of materials chemistry articles. Facilities offer the ability to maintain and operate such capabilities efficiently.


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