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dc.contributor.advisorDolate, Daniel P.en_US
dc.contributor.advisorGervay, Jacquelynen_US
dc.contributor.authorParrill, Abby Louise, 1970-
dc.creatorParrill, Abby Louise, 1970-en_US
dc.date.accessioned2013-05-09T11:32:20Z
dc.date.available2013-05-09T11:32:20Z
dc.date.issued1996en_US
dc.identifier.urihttp://hdl.handle.net/10150/290612
dc.description.abstractComputer-aided drug design is a rapidly growing area of research. The design process can proceed from two angles: either the three-dimensional structure of the biological target is known, or it is unknown. Thus the area of computer-aided drug design can be separated into a number of problems. One problem is determining the structure of a biomolecule from experimental data, as is done in chapter 2 for colominic acid polylactone. These studies determined that there are two helical structures consistent with spectral data A second problem is designing a ligand complementary to the three-dimensional structure of the target. Chapters 3 and 4 describe studies leading to the design and evaluation of neuraminidase inhibitors. These studies indicate that several inhibitors studied are competitive inhibitors of the enzyme with better binding affinities than the natural ligand. The final,and potentially most difficult problem, is to infer features about the biological target from compounds known to bind to that target. Chapters 5 and 6 describe model studies and implementation of CLEW, a program to learn rules relating structural features to biological function. Results indicate that learning based on topological features is a useful first iteration in determining the pharmacophore, or three-dimensional arrangement of functionality required for biological activity.
dc.language.isoen_USen_US
dc.publisherThe University of Arizona.en_US
dc.rightsCopyright © is held by the author. Digital access to this material is made possible by the University Libraries, University of Arizona. Further transmission, reproduction or presentation (such as public display or performance) of protected items is prohibited except with permission of the author.en_US
dc.subjectChemistry, Organic.en_US
dc.subjectChemistry, Pharmaceutical.en_US
dc.subjectArtificial Intelligence.en_US
dc.subjectComputer Science.en_US
dc.titleApplications of artificial intelligence in drug designen_US
dc.typetexten_US
dc.typeDissertation-Reproduction (electronic)en_US
thesis.degree.grantorUniversity of Arizonaen_US
thesis.degree.leveldoctoralen_US
dc.identifier.proquest9713370en_US
thesis.degree.disciplineGraduate Collegeen_US
thesis.degree.disciplineChemistryen_US
thesis.degree.namePh.D.en_US
dc.description.noteThis item was digitized from a paper original and/or a microfilm copy. If you need higher-resolution images for any content in this item, please contact us at repository@u.library.arizona.edu.
dc.identifier.bibrecord.b34360657en_US
dc.description.admin-noteOriginal file replaced with corrected file October 2023.
refterms.dateFOA2018-08-29T20:09:28Z
html.description.abstractComputer-aided drug design is a rapidly growing area of research. The design process can proceed from two angles: either the three-dimensional structure of the biological target is known, or it is unknown. Thus the area of computer-aided drug design can be separated into a number of problems. One problem is determining the structure of a biomolecule from experimental data, as is done in chapter 2 for colominic acid polylactone. These studies determined that there are two helical structures consistent with spectral data A second problem is designing a ligand complementary to the three-dimensional structure of the target. Chapters 3 and 4 describe studies leading to the design and evaluation of neuraminidase inhibitors. These studies indicate that several inhibitors studied are competitive inhibitors of the enzyme with better binding affinities than the natural ligand. The final,and potentially most difficult problem, is to infer features about the biological target from compounds known to bind to that target. Chapters 5 and 6 describe model studies and implementation of CLEW, a program to learn rules relating structural features to biological function. Results indicate that learning based on topological features is a useful first iteration in determining the pharmacophore, or three-dimensional arrangement of functionality required for biological activity.


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