Administrative Core. The broad aim of the Administrative Core of the proposed Center for Bio- NMR Data Processing and Analysis is to coordinate the three major activities of the Center: (1) the Technology Research and Development (TRD) projects, (2) the Driving Biological Projects (DBPs), and (3) the Collaboration and Service (CS) projects. It will also ensure timely deployment of resources by the Infrastructure Core, facilitate the flow of material from the TRDs to the Training and Dissemination Cores, and provide administrative support for workshops. Establishment of and monitoring adherence to procedures for communication, including document management, is a primary responsibility of the Administrative Core. Another important responsibility is legal oversight, including negotiation and execution of licenses for software redistribution. The Administrative Core is responsible for continually evaluating performance metrics for the Center, including progress of the TRDs, through monthly meetings with the heads of Center components. Progress will be reviewed annually in consultation with the External Advisory Committee, including a review of the status of DBP and CS projects. The Administrative Core is responsible for issuing progress and financial reports to NIH and other organizations. These activities will be facilitated by administrative and legal staff support provided by the University of Connecticut.
| Dashti, Hesam; Wedell, Jonathan R; Westler, William M et al. (2018) Applications of Parametrized NMR Spin Systems of Small Molecules. Anal Chem 90:10646-10649 |
| Pupier, Marion; Nuzillard, Jean-Marc; Wist, Julien et al. (2018) NMReDATA, a standard to report the NMR assignment and parameters of organic compounds. Magn Reson Chem 56:703-715 |
| Gryk, Michael R; Ludäscher, Bertram (2018) Semantic Mediation to Improve Reproducibility for Biomolecular NMR Analysis. Transform Digit Worlds (2018) 10766:620-625 |
| Maciejewski, Mark W; Schuyler, Adam D; Hoch, Jeffrey C (2018) Practical Nonuniform Sampling and Non-Fourier Spectral Reconstruction for Multidimensional NMR. Methods Mol Biol 1688:341-352 |
| Zambrello, Matthew A; Schuyler, Adam D; Maciejewski, Mark W et al. (2018) Nonuniform sampling in multidimensional NMR for improving spectral sensitivity. Methods 138-139:62-68 |
| Kaplan, Anne R; Brady, Megan R; Maciejewski, Mark W et al. (2017) Nuclear Magnetic Resonance Structures of GCN4p Are Largely Conserved When Ion Pairs Are Disrupted at Acidic pH but Show a Relaxation of the Coiled Coil Superhelix. Biochemistry 56:1604-1619 |
| Zambrello, Matthew A; Maciejewski, Mark W; Schuyler, Adam D et al. (2017) Robust and transferable quantification of NMR spectral quality using IROC analysis. J Magn Reson 285:37-46 |
| Hoch, Jeffrey C (2017) Beyond Fourier. J Magn Reson 283:117-123 |
| Eghbalnia, Hamid R; Romero, Pedro R; Westler, William M et al. (2017) Increasing rigor in NMR-based metabolomics through validated and open source tools. Curr Opin Biotechnol 43:56-61 |
| Fathi, Fariba; Brun, Antonio; Rott, Katherine H et al. (2017) NMR-Based Identification of Metabolites in Polar and Non-Polar Extracts of Avian Liver. Metabolites 7: |
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