Award Data

The Exascale Computing Project is tasked to develop the next generation of high performance computing systems capable of computing at 50 to 100 times faster than current HPC systems. Computing at this extreme-scale will significantly enhance the value of materials modeling and simulation to basic materials research and engineering In particular, computing at the extreme scale will enable a higher ...

Idaho National Laboratory (INL), under funding from the Critical Materials Institute, has developed a US patented technology to reclaim valuable metals from waste electronic equipment. The Electrochemical Recycling Electronic Constituents of Value (E-RECOV) method uses an electrochemical cell to efficiently recover the bulk of metals from discarded electronics, leading to more complete recycling o ...

Statement of Problem: The US DOE has set a goal to advance photovoltaics (PV) technology to reach installed costs of less than $1/Watt. This requires module costs below $0.50/ Watt. Thin film PV provides the lowest documented production cost per watt ($0.67) of any PV technology. Module reliability has a direct impact on the levalized cost of energy (LCOE), or the cost of the energy produced by ...

Improved ignition methods are needed for advanced vehicle combustion systems, in particular those that allow reliable ignition of lean mixtures in gasoline engines at elevated pressures. Laser ignition is a candidate technology having the potential to address these needs. However, despite more than 40 years of laser ignition research, the technology is not yet in commercial use. A critical proble ...

Small Angle Neutron Scattering (SANS) has been an extremely productive materials science probe for several decades and is used extensively by researchers studying a wide range of subjects, including polymers, ceramics, metals and biological macromolecules and functions. However, it is limited to length scales from 1 to 100 nm and requires highly collimated and relatively monochromatic neutron beam ...

This project will develop position-sensitive liquid argon detectors for a range of nuclear physics experiments. A particular need is for large area detectors with good energy, spatial and time resolution. Originally developed for calorimetry and the detection of neutrinos, weakly interacting massive particles and neutrinoless double beta decay, liquefied noble gas (LNG) detectors have ...

Photocathodes are one of the most critical components in RF-based linacs and light source systems. Current photocathodes lack the capability to meet the long term requirements for medical, defense, industrial and many scientific systems. This program will develop a new generation of photocathodes that provide high performance and long life. Calabazas Creek Research Inc. (CCR), in collaboration wi ...

Present day photoinjector cathodes have a poor lifetime or inadequate quantum efficiency for advanced applications. In addition, the efficiency is constrained by the frequency up- conversion in the drive laser from infrared to ultraviolet photons. Novel nanofabrication techniques allow for the sub-wavelength patterning of grooves and hole-array surfaces on the cathode. Exploiting the surface plas ...

The single most critical value in any terrestrial carbon (C) sequestration budget is the net primary production. The biggest unknown in determining C sequestration is the allocation, production, respiration, mortality and decomposition of soil organisms. We developed and are refining a new observation/sensor platform, the enhanced automated minirhizotron (EAMR) which, when coupled to a soil sensor ...

Electrons play a very key role in plasma chemistry and dynamics of low temperature plasmas. Improved capability for measuring electron number density, ne, and electron energy distribution function, EEDF, in weakly ionized low temperature plasmas would benefit both fundamental study and application areas. For example, the capability would directly benefit emerging research targeted at modifying and ...