Zobrazeno 1 - 8
of 8
pro vyhledávání: '"Caroline D, Cox"'
Publikováno v:
Journal of the Chemical Society, Perkin Transactions 1. :2372-2379
Synthesis of the title compounds is described; detailed NMR data are provided in support of the proposed stereostructures. The 5- and 6-endo-compounds show high selectivity for α4β2 versus α7 nAChR subtypes; in contrast, the exo-stereoisomers show
Autor:
Caroline D. Cox, John R. Malpass
Publikováno v:
Tetrahedron. 55:11879-11888
The coupling of N -protected 2-azabicyclo[2.2.1]hept-5-enes and 2-chloro-5-iodopyridine under reductive Heck conditions gives approximately equal amounts of exo -5- and exo -6- (6′-chloro-3′-pyridyl)-2-azabicyclo[2.2.1]heptanes. The ratio varies
Autor:
John R. Malpass, Caroline D. Cox
Publikováno v:
Tetrahedron Letters. 40:1419-1422
A synthetic route to the epibatidine analogue endo-5-(6-chloro-3-pyridyl)-2-azabicyclo[2.2.1]heptane and the corresponding endo-6- isomer is described, starting from a readily-available 2-azabicyclo[2.2.1]hept-5-ene derivative. Both the exo-5- and ex
Publikováno v:
Biological research for nursing. 13(3)
Investigators commonly assess intra- and inter-assay coefficients of variation (CVs) to estimate the precision of salivary cortisol enzyme immunoassay (EIA). However, little guidance is available as to which samples to use for CV assessment. The purp
Autor:
Caroline D. Cox, John R. Malpass
Publikováno v:
ChemInform. 30
A synthetic route to the epibatidine analogue endo-5-(6-chloro-3-pyridyl)-2-azabicyclo[2.2.1]heptane and the corresponding endo-6- isomer is described, starting from a readily-available 2-azabicyclo[2.2.1]hept-5-ene derivative. Both the exo-5- and ex
Publikováno v:
ChemInform. 33
Synthesis of the title compounds is described; detailed NMR data are provided in support of the proposed stereostructures. The 5- and 6-endo-compounds show high selectivity for α4β2 versus α7 nAChR subtypes; in contrast, the exo-stereoisomers show
Autor:
Steven E, Scherer, Donna M, Muzny, Christian J, Buhay, Rui, Chen, Andrew, Cree, Yan, Ding, Shannon, Dugan-Rocha, Rachel, Gill, Preethi, Gunaratne, R Alan, Harris, Alicia C, Hawes, Judith, Hernandez, Anne V, Hodgson, Jennifer, Hume, Andrew, Jackson, Ziad Mohid, Khan, Christie, Kovar-Smith, Lora R, Lewis, Ryan J, Lozado, Michael L, Metzker, Aleksandar, Milosavljevic, George R, Miner, Kate T, Montgomery, Margaret B, Morgan, Lynne V, Nazareth, Graham, Scott, Erica, Sodergren, Xing-Zhi, Song, David, Steffen, Ruth C, Lovering, David A, Wheeler, Kim C, Worley, Yi, Yuan, Zhengdong, Zhang, Charles Q, Adams, M Ali, Ansari-Lari, Mulu, Ayele, Mary J, Brown, Guan, Chen, Zhijian, Chen, Kerstin P, Clerc-Blankenburg, Clay, Davis, Oliver, Delgado, Huyen H, Dinh, Heather, Draper, Manuel L, Gonzalez-Garay, Paul, Havlak, Laronda R, Jackson, Leni S, Jacob, Susan H, Kelly, Li, Li, Zhangwan, Li, Jing, Liu, Wen, Liu, Jing, Lu, Manjula, Maheshwari, Bao-Viet, Nguyen, Geoffrey O, Okwuonu, Shiran, Pasternak, Lesette M, Perez, Farah J H, Plopper, Jireh, Santibanez, Hua, Shen, Paul E, Tabor, Daniel, Verduzco, Lenee, Waldron, Qiaoyan, Wang, Gabrielle A, Williams, Jingkun, Zhang, Jianling, Zhou, Carlana C, Allen, Anita G, Amin, Vivian, Anyalebechi, Michael, Bailey, Joseph A, Barbaria, Kesha E, Bimage, Nathaniel P, Bryant, Paula E, Burch, Carrie E, Burkett, Kevin L, Burrell, Eliana, Calderon, Veronica, Cardenas, Kelvin, Carter, Kristal, Casias, Iracema, Cavazos, Sandra R, Cavazos, Heather, Ceasar, Joseph, Chacko, Sheryl N, Chan, Dean, Chavez, Constantine, Christopoulos, Joseph, Chu, Raynard, Cockrell, Caroline D, Cox, Michelle, Dang, Stephanie R, Dathorne, Robert, David, Candi Mon'Et, Davis, Latarsha, Davy-Carroll, Denise R, Deshazo, Jeremy E, Donlin, Lisa, D'Souza, Kristy A, Eaves, Amy, Egan, Alexandra J, Emery-Cohen, Michael, Escotto, Nicole, Flagg, Lisa D, Forbes, Abdul M, Gabisi, Melissa, Garza, Cerissa, Hamilton, Nicholas, Henderson, Omar, Hernandez, Sandra, Hines, Marilyn E, Hogues, Mei, Huang, DeVincent G, Idlebird, Rudy, Johnson, Angela, Jolivet, Sally, Jones, Ryan, Kagan, Laquisha M, King, Belita, Leal, Heather, Lebow, Sandra, Lee, Jaclyn M, LeVan, Lakeshia C, Lewis, Pamela, London, Lorna M, Lorensuhewa, Hermela, Loulseged, Demetria A, Lovett, Alice, Lucier, Raymond L, Lucier, Jie, Ma, Renita C, Madu, Patricia, Mapua, Ashley D, Martindale, Evangelina, Martinez, Elizabeth, Massey, Samantha, Mawhiney, Michael G, Meador, Sylvia, Mendez, Christian, Mercado, Iracema C, Mercado, Christina E, Merritt, Zachary L, Miner, Emmanuel, Minja, Teresa, Mitchell, Farida, Mohabbat, Khatera, Mohabbat, Baize, Montgomery, Niki, Moore, Sidney, Morris, Mala, Munidasa, Robin N, Ngo, Ngoc B, Nguyen, Elizabeth, Nickerson, Ogechi O, Nwaokelemeh, Stanley, Nwokenkwo, Melissa, Obregon, Maryann, Oguh, Njideka, Oragunye, Rodolfo J, Oviedo, Bridgette J, Parish, David N, Parker, Julia, Parrish, Kenya L, Parks, Heidie A, Paul, Brett A, Payton, Agapito, Perez, William, Perrin, Adam, Pickens, Eltrick L, Primus, Ling-Ling, Pu, Maria, Puazo, Miyo M, Quiles, Juana B, Quiroz, Dina, Rabata, Kacy, Reeves, San Juana, Ruiz, Hongmei, Shao, Ida, Sisson, Titilola, Sonaike, Richard P, Sorelle, Angelica E, Sutton, Amanda F, Svatek, Leah Anne, Svetz, Kavitha S, Tamerisa, Tineace R, Taylor, Brian, Teague, Nicole, Thomas, Rachel D, Thorn, Zulma Y, Trejos, Brenda K, Trevino, Ogechi N, Ukegbu, Jeremy B, Urban, Lydia I, Vasquez, Virginia A, Vera, Donna M, Villasana, Ling, Wang, Stephanie, Ward-Moore, James T, Warren, Xuehong, Wei, Flower, White, Angela L, Williamson, Regina, Wleczyk, Hailey S, Wooden, Steven H, Wooden, Jennifer, Yen, Lillienne, Yoon, Vivienne, Yoon, Sara E, Zorrilla, David, Nelson, Raju, Kucherlapati, George, Weinstock, Richard A, Gibbs
Publikováno v:
Nature. 440(7082)
Human chromosome 12 contains more than 1,400 coding genes and 487 loci that have been directly implicated in human disease. The q arm of chromosome 12 contains one of the largest blocks of linkage disequilibrium found in the human genome. Here we pre
Autor:
Martin J. P. Harger, Caroline D. Cox
Publikováno v:
Journal of Chemical Research. :578-579
The conversion of R2CHP(X)(NEt2)Cl (R2CH=9-fluorenyl) into R2CHP(X)(NEt2)2via the intermediate R2CP(X)NEt2 (elimination–addition mechanism) is much faster when X=S than when X=O.