| Date |
Agency |
Amount |
Investigator(s) |
Project Title |
| 9/30/09 |
National Institute of General Medical Sciences |
$144,256 |
Makhatadze, George |
Structural Studies of Triple-helical Proteins
Definition of the fundamental principles of collagen triple-helix molecular structure and association into higher order structures will further our understanding of normal matrix structure/function relationships and enhance the development of collagen-based biomaterials. |
|
Department of Education |
$226,529 |
N/A |
Federal Work Study Program |
| 9/30/09 |
National Institute of General Medical Sciences |
$114,000 |
Gilbert, Susan |
Mechanistic Analysis of Microtubule Based Motors
The proposed studies should lead to new strategies for high throughput screens that select compounds to enhance cancer cell death rather than aneuploidy after chemotherapy. |
| 9/30/09 |
National Institute of General Medical Sciences |
$598,158 |
Makhatadze, George |
Role of Helix Formation in Mediating Protein-Protein Interactions
The proposed work will study protein-protein interactions in a biologically important system. |
| 9/30/09 |
National Institute of General Medical Sciences |
$596,994 |
Dordick, Jonathan; Lindhardt, Robert |
An Artificial Golgi: Controlled GAG Synthesis and Screening
The proposed effort impacts human health by developing an artificial Golgi to synthesize a library of heparan sulfates and heparan sulfate oligosaccharides. |
| 9/30/09 |
National Institute of General Medical Sciences |
$75,337 |
Barquera, Blanca |
Na+-pumping NADH:quinone oxidoreductase of V. cholerae
The proposed research is focused on the structure and function of the Na+-pumping NADH:quinone oxidoreductase (Na+-NQR) from Vibrio cholerae. |
| 9/20/09 |
National Library of Medicine |
$170,789 |
Bennett, Kristin; Yener, Bulent |
Discovering Hidden Groups Across Tuberculosis Patient And Pathogen Genotype Data (2)
The principal objective of this project is to develop methods that combine pathogen genotyping and patient epidemiology data that can be used in the control, understanding, and tracking of infectious diseases. |
| 9/18/09 |
U.S. Dept. of Energy |
$650,000 |
Lian, Jie |
Actinide Material for the 21st Century
The project's objective is to enable the development of advanced materials for future nuclear energy systems. Experimental and computational approaches will integrate to investigate complex structures including actinide materials at the nanoscale, as well as the properties of these materials in extreme environments. |
| 9/17/09 |
National Library of Medicine |
$224,092 |
Xu, George |
4D Visible Human Modeling for Radiation Dosimetry
The project aims to develop computational tools for modeling the respiratory deformation in the lungs using polygonal meshes, and to perform Monte Carlo radiation transport simulations and dose calculations in patient phantoms efficiently. |
| 9/17/09 |
National Institute on Drug Abuse |
$90,000 |
Wentland, Mark |
Aminobenzomorphan: Potential Cocaine Abuse Medications
|
| 9/15/09 |
National Science Foundation |
$1,100,000 |
Fox, Peter; McGuinness, Deborah |
STCI: A Semantic eScience Framework (SESF): Facilitating Next Generation Data Intensive Science
The goal of this project is to design and implement a software toolkit and ready-to-use application plugins that are able to encode and understand the underlying meaning of data, information, and science concepts in a familiar vocabulary. Both experts and non-experts in a given field will be able to find, access, and use data and information sources, which was previously possible in a limited number of cases. |
| 9/15/09 |
National Science Foundation |
$241,714 |
Szymanski, Boleslaw; Newberg, Lee; Magdon-Ismail, Malik |
Citizens Science: Enabling Computational Probabilistic Methods for Organism's Transcriptional Regulatory Network Using Voluntary Computing Platforms
|
| 9/1/09 |
National Institute Of Biomedical Imaging And Bioengineering |
$231,234 |
Yener, Bulent |
A Computational Approach To Closing The Gap Between Tissue Structure And Function
Successful completion of this project will provide a new and powerful tool for quantitatively linking telltale structural properties of tissues (e.g., cellular distribution, morphology, contact) with specific disease states and fundamental behaviors of the cells comprising these tissues. |