26 research outputs found

    Black Demands at Denison: an Alumni View, by Rick Kean \u2766

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    Black Demands at Denison: an Alumni View, by Rick Kean \u276

    Exile Vol. XI No. 2

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    FICTION Don\u27t Break Bread with Strangers by Thomas Getz 5-12 Story by Kathy Swiger 17-20 The Last of the Flag Pole Sitters 25-29 POETRY Muttering: A Letter by Gretchen Schenk 14-15 Poem by Jane Pearson 20 Marina in March by Karen Combs 21 of the pope too slow in recovery by Bill C. West Jr. 22 Poem by Jim Nichols 23 Poem by Judy Strange 23 Haiku by Bonnie Bishop 29 ART Pen and Ink by Dan Thaxton 4 Linocut by Richard Machlan 13 Etching by Lynne Wiley 16 Woodcut by Lela Giles 22 Charcoal by Carol Kubie 2

    Dataset for: High resolution studies of hydride transfer in the ferredoxin:NADP+ reductase superfamily

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    Ferredoxin-NADP+ reductase (FNR) is an FAD-containing enzyme best known for catalyzing the transfer of electrons from ferredoxin (Fd) to NADP+ to make NADPH during photosynthesis. It is also the prototype for a broad enzyme superfamily, including the NADPH oxidases (NOXs) that all catalyze similar FAD-enabled electron transfers between NAD(P)H and one-electron carriers. Here we define further mechanistic details of the NAD(P)H ⇌ FAD hydride-transfer step of the reaction based on spectroscopic studies and high resolution (~1.5 Å) crystallographic views of the nicotinamide-flavin interaction in crystals of corn root FNR Tyr316Ser and Tyr316Ala variants soaked with either nicotinamide, NADP+, or NADPH. The spectra obtained from FNR crystal complexes match those seen in solution and the complexes reveal active site packing interactions and patterns of covalent distortion of the FAD that imply significant active site compression that would favor catalysis. Furthermore, anisotropic B-factors show that the mobility of the C4 atom of the nicotinamide in the FNR:NADP+ complex has a directionality matching that expected for boat-like excursions of the nicotinamide ring thought to enhance hydride transfer. Arguments are made for the relevance of this binding mode to catalysis, and specific consideration is given to how the results extrapolate to provide insight to structure-function relations for the membrane-bound NOX enzymes for which little structural information has been available

    Broadening the model of science - Recognizing different types of contributions

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    Resources for Society for the Improvement of Psychological Science (2016) Meeting - Diversity & Alternative Contribution
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