124 resultados para Finkelstein
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National Highway Traffic Safety Administration, Washington, D.C.
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National Highway Traffic Safety Administration, Washington, D.C.
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Mode of access: Internet.
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Thesis (M.S.)--University of Illinois.
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"July 1981."
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verso: Conference at Macon, Georgia, Nov. 10-11, 1939; First row sitting. James A. Ford, John Alden, Joseph R. Caldwell, Dr. Frederick S. Hulse, John Bennett, ? ?, George I. Quimby Jr., Joffre Coe. Second row standing left to right: John C. Ewers, James B. Griffin, Madeline Kneberg, Marion L. Dunlevy, Charles H. Fairbanks, J. Joe Finkelstein, Karl Schmitt Jr., Charles G. Wilder, Carl F. Miller, Ralph Brown, ? Third row: Harold F. Dahms, Andrew H. Whiteford, Charles Snow, H. Thomas Cain, ? ?, Robert Ritzenthaler, Robert Wauchope, ? ?, ? West
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Top Row: Debbi Anderson, Cherie Armstrong, Diane Arney, Grace Ball, Marie Bazil, Suzanne Bihan, Nancy Black, Ellen Bochenck, Lisa Bramble, Ann Marie Brissette, Mary Brock, Gale Brown, Nancy Buhl, Judith Burek, Dana Leigh Burn, Mari Byce
Row 2: Dianne Byrd, Diane Cary, Julie Rosanne Cherno, Susan Copland, Lisa Corso, Sharon Corzine, Elsa Cowan, Linda Crawley, Constance D Anna, Mary Daly, Julie De May, Janet Dean, Lwah Ann Dennis, Leslie Jean De Noon, Barbara Deur, Marilynn Dowdy
Row 3: Laurie B. Dreisbach, Patricia Dvorak, Mary Earle, Judith Eason, Charlene Eickholt, Kathryn Elden, Susan Bourget, B.M. Rutkowski, J.Sebring-Mammel, Joan Kessler, Gregory Hazle, Rosa Ohno, Miriam Elgent, Micky Erickson, Kathleen Evans, Cathleen Fasse, Martha Finkelstein, Edie Firshman
Row 4: Susan Fitzpatrick, Lynn foley, Barbara Fredal, Lisa Ghormley, Susan Green, Carol Grishaw, Jennifer Hayden, Susan Hewens, Brenda J. Hooker, M. Karen Harning, Jean Huneke, Rose Hunter
Row 5: Joyce Jackson, Janet James, Mary Jesse, Christy Jones, Kathy Joy, Debra kadlec, Therese Keating, Ann Marie Kelly, Carol Key, Karen Dickstein, Jill Knechtel, Robin Kruger
Row 6: Mary Beth Kyko, Catherine Lawrence, Joni Lawrence, Eun Lee, Amy Long, Kathey F. Lord, Johanna Lund, Elizabeth Mac Kinnon, Marilyn Mackovjak, Lisa Mann, rose Marentette, Carmen McDowell
Row 7: Molly Mitchell, Mary Molewyk, Sandra Musci, Susan Nevins, Janet Newman, Marcy L. Ortquist, Jeanmarie Otto, Marci Peterhans, Marquite Pierce, Janet Pierson, Rachel Plumley, Frances Potasnik, Cynthia pressprich, Susan J. Robertson, Gilbert RodriqueZ, Deborah Romano, Deborah Ross, Patricia Rouen
Row 8: Abby Scholnick, Nancy Schuster, Cynthia Schwartz, Mary Ellen Sitek, Marqaret Smith, Ann Marie Smith, Cindy Smith, Julie Smrcka, Susan St. Onge, Michelle Stafford, Brenda Stallings, Nancy Steffler, Louise Sullivan, Laure Szatkowski, Bonnie R. Temple, Patricia A. Tevlin
Row 9: Linda L. Travis, Margaret Turner, Heidi Unger, Grace M.J. Valmassoi, Sally Van fleeren, Anne VanLoon, Jan Veseth, Anne MArie Villeneuve, Cynthia vrable, Lori E. Weyland, Theresa Wish, Anne Witham, Laura Wollum, Marla Young
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Thesis (doctoral)--Georg-August-Universität Göttingen, 1901.
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The homeostasis of GABA is critical to normal brain function. Extracellular levels of GABA are regulated mainly by plasmalemmal gamma-aminobutyric acid (GABA) transporters. Whereas the expression of GABA transporters has been extensively studied in rodents, validation of this data in other species, including humans, has been limited. As this information is crucial for our understanding of therapeutic options in human diseases such as epilepsy, we have compared, by immunocytochemistry, the distributions of the GABA transporters GAT-1 and GAT-3 in rats, cats, monkeys and humans. We demonstrate subtle differences between the results reported in the literature and our results, such as the predominance of GAT-1 labelling in neurons rather than astrocytes in the rat cortex. We note that the optimal localisation of GAT-1 in cats, monkeys and humans requires the use of an antibody against the human sequence carboxyl terminal region of GAT-1 rather than against the slightly different rat sequence. We demonstrate that GAT-3 is localised mainly to astrocytes in hindbrain and midbrain regions of rat brains. However, in species such as cats, monkeys and humans, additional strong immunolabelling of oligodendrocytes has also been observed. We suggest that differences in GAT distribution, especially the expression of GAT-3 by oligodendrocytes in humans, must be accommodated in extrapolating rodent models of GABA homeostasis to humans.
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In the absence of an external frame of reference-i.e., in background independent theories such as general relativity-physical degrees of freedom must describe relations between systems. Using a simple model, we investigate how such a relational quantum theory naturally arises by promoting reference systems to the status of dynamical entities. Our goal is twofold. First, we demonstrate using elementary quantum theory how any quantum mechanical experiment admits a purely relational description at a fundamental. Second, we describe how the original non-relational theory approximately emerges from the fully relational theory when reference systems become semi-classical. Our technique is motivated by a Bayesian approach to quantum mechanics, and relies on the noiseless subsystem method of quantum information science used to protect quantum states against undesired noise. The relational theory naturally predicts a fundamental decoherence mechanism, so an arrow of time emerges from a time-symmetric theory. Moreover, our model circumvents the problem of the collapse of the wave packet as the probability interpretation is only ever applied to diagonal density operators. Finally, the physical states of the relational theory can be described in terms of spin networks introduced by Penrose as a combinatorial description of geometry, and widely studied in the loop formulation of quantum gravity. Thus, our simple bottom-up approach (starting from the semiclassical limit to derive the fully relational quantum theory) may offer interesting insights on the low energy limit of quantum gravity.