NMR Structure Improvement: A Structural Bioinformatics & Visualization Approach

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Date

2010

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Abstract

The overall goal of this project is to enhance the physical accuracy of individual models in macromolecular NMR (Nuclear Magnetic Resonance) structures and the realism of variation within NMR ensembles of models, while improving agreement with the experimental data. A secondary overall goal is to combine synergistically the best aspects of NMR and crystallographic methodologies to better illuminate the underlying joint molecular reality. This is accomplished by using the powerful method of all-atom contact analysis (describing detailed sterics between atoms, including hydrogens); new graphical representations and interactive tools in 3D and virtual reality; and structural bioinformatics approaches to the expanded and enhanced data now available.

The resulting better descriptions of macromolecular structure and its dynamic variation enhances the effectiveness of the many biomedical applications that depend on detailed molecular structure, such as mutational analysis, homology modeling, molecular simulations, protein design, and drug design.

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Chemistry, Biochemistry, Biophysics, General, Molecular physics, NMR spectroscopy, protein NMR, Structural bioinformatics, Structural biology, Virtual reality

Citation

Citation

Block, Jeremy (2010). NMR Structure Improvement: A Structural Bioinformatics & Visualization Approach. Dissertation, Duke University. Retrieved from https://hdl.handle.net/10161/2394.

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