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Ames Lab's Sensitive Instrument Facility to be built

Plans are being finalized for construction of a new Ames Laboratory research facility that will house current and next generation sensitive instruments such as electron and scanning probe microscopes.  These instruments allow for detailed description of materials at the atomic level to aid in the discovery and design of novel materials.  The nearly $10 million project is being funded through the DOE's Office of Science. Image

Ames Laboratory to build new research facility

Plans are being finalized for construction of a new Ames Laboratory research facility that will house current and next generation sensitive instruments such as electron and scanning probe microscopes.  These instruments allow for detailed description of materials at the atomic level to aid in the discovery and design of novel materials.  The nearly $10 million project is being funded through the DOE's Office of Science.

Understanding of Rare Earth Metals from Theory

The rare earth metals are becoming increasingly applicable in our everyday life. The enormous importance of rare earths in the technology, environment, and economy is attracting scientists all over the world to investigate them starting from the extraction to the physical and chemical properties measurements.  Although a lot of works have been done on the experimentation of rare earths, the true understanding from theory and modeling on these materials is lagging behind.

Solar to Chemical Energy Conversion with Photocatalytic Heterostructures made of Earth Abundant Materials

Cu2ZnSnS4 (CZTS) is one of the most promising materials for solar energy harvesting. Made of highly abundant, widely distributed and relatively biocompatible elements, and with a direct band gap of 1.5 eV, CZTS is an affordable, greener and more sustainable alternative to other semiconductors such as GaAs, CdTe, CuInS2 (CIS), or CuInxGa1-xSe2 (CIGS).

Software Interoperability for New Science

Within the Applied Mathematics and Computational Science (AMCS) program we advance the use of scalable computing in scientific and engineering computation, and develop new programming paradigms for novel hardware. Multiscale simulation methods is an indispensable tool in understanding chemical processes and designing new materials. When simulation spans multiple temporal or spatial scales, existing capabilities of a single software package are often insufficient, and a coupling of multiple programming packages developed by different research groups is strongly desirable.

Graphene may shed new light on terahertz metamaterials and plasmonics

Could graphene – a one-layer thick sheet of carbon atoms – be the ingredient needed for super-efficient solar harvesting with metamaterials? Or for “light on wire†plasmonic data transmission? In the Aug. 9 issue of Science, U.S. Department of Energy's Ames Laboratory physicists discuss the potential and challenges of using graphene in metamaterials and plasmonics in terahertz applications, which operate at frequencies between microwave and infrared waves.

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