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Materials
& Engineering Physics Team (BES)
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Nano-Mechanics of Tunable Adhesion using Non Covalent Forces
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Theory of the Optical and Electronic
Properties of Clusters and Nanostructures
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Transport
and Collective Properties of Semiconductor Multi Layers and
Nano Structures
Chemical
Sciences, Geosciences, & Biosciences Division (BES)
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Nanostructured Hybrid Materials for Advanced Membrane
Separations
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Synthetic Receptors for Actinide Cations
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Predicting Fracture Porosity Evolution In
Sandstone
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Time Resolved Single Molecule Spectroscopy
Studies of Photoinduced Charge Separation and Charge Transfer in Organic
Nanoparticles
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Metal-Anion Pairing at Oxide/Water
Interfaces: Theoretical and Experimental Investigations from the Nanoscale
to the Macroscale
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Cellulose Synthesizing Complexes in Vascular
Plants and Procaryotes
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High Intensity Femtosecond XUV Pulse
Interactions with Atomic Clusters
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The Surface Chemistry of Size-Controlled
Oxide-Supported Ir Nanoclusters
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A Fundamental Study of Transport Within a
Single Nanoscopic Channel
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Scalable Methods for Electronic Excitations
and Optical Responses of
Office
of the Associate Director (HEP)
-
Research in High Energy Physics
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Investigations of the Plasma and
Structure-Based Particle Accelerators
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Laser Wakefield Acceleration: Channeling,
Seeding, and Diagnostics
Mathematical,
Information, & Computational Sciences Division (ASCR)
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Discretizations and Solvers for Multiphysics Coupling in
Energy and Environment Applications
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Adaptive Multi-Scale Modeling Based on Goal
Oriented Error Estimation and Control
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FAST: A Fast, Full-System, Cycle-Accurate
Computer Simulator
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Reducing the Vulnerability of Electric Power
Grids to Terrorist Attacks
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Towards Optimal Petascale Simulations (TOPS)
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Terascale Optimal PDE Simulations (TOPS)
Center
Research
Division (FES)
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Establishment of an Institute for Fusion Studies
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Removing the Divertor Bottleneck in Magnetic Fusion Energy
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Interaction of High Intensity Electromagnetic Waves with
Plasmas
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Collaborative Research:
Magnetized Plasma Turbulence and Coupling to Bulk Flows
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Turbulence and Transport in
Tokamaks:
A Proposal for Collaboration between The University of Texas Fusion
Research Center and
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Proposed Diagnostics and Physics Contributions of the
University of Texas Fusion Research Center to the DIII-D Program
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Collective High-Current Beam Effects Relevant
to Fast Ignition of Fusion Targets
Physics
Research Division (NP)
*Total Amount Funded by the Office of Science for FY05 ($ in thousands): $9,064
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