Zobrazeno 1 - 9
of 9
pro vyhledávání: '"Michael J, Soskis"'
Autor:
Michael J. Soskis, George Chenaux, Michael A. Robichaux, Hsin-Yi Henry Ho, Michael E. Greenberg, Mark Henkemeyer, Christopher W. Cowan
Publikováno v:
Developmental Neurobiology. 76:405-420
The two cortical hemispheres of the mammalian forebrain are interconnected by major white matter tracts, including the corpus callosum (CC) and the posterior branch of the anterior commissure (ACp), that bridge the telencephalic midline. We show here
Autor:
Kenneth Y. Kwan, Hsin-Yi Henry Ho, Nenad Sestan, Mark Henkemeyer, Christopher Dravis, Michael A. Robichaux, Christopher W. Cowan, Michael J. Soskis, Michael E. Greenberg, George Chenaux
Publikováno v:
Proceedings of the National Academy of Sciences. 111:2188-2193
In early brain development, ascending thalamocortical axons (TCAs) navigate through the ventral telencephalon (VTel) to reach their target regions in the young cerebral cortex. Descending, deep-layer cortical axons subsequently target appropriate tha
Autor:
Hsin-Yi Henry Ho, Brenda L. Bloodgood, Michael J. Soskis, Nikhil Sharma, Kevan M. Shokat, Christopher W. Cowan, Alex A. Rubin, Michael E. Greenberg, Janine Zieg, Athar N. Malik, Bulent Ataman, Michael A. Robichaux, Chao Zhang
Publikováno v:
Nature neuroscience
EphB receptor tyrosine kinases control multiple steps in nervous system development. However, it remains unclear whether EphBs regulate these different developmental processes directly or indirectly. In addition, as EphBs signal through multiple mech
Autor:
John Kim, Annie L. Conery, David J. Simon, Katherine L. Thompson-Peer, Gary Ruvkun, Joshua M. Kaplan, Michael J. Soskis, Jon M. Madison
Publikováno v:
Cell. 133:903-915
SummaryWe show that miR-1, a conserved muscle-specific microRNA, regulates aspects of both pre- and postsynaptic function at C. elegans neuromuscular junctions. miR-1 regulates the expression level of two nicotinic acetylcholine receptor (nAChR) subu
Autor:
Michael A, Robichaux, George, Chenaux, Hsin-Yi Henry, Ho, Michael J, Soskis, Michael E, Greenberg, Mark, Henkemeyer, Christopher W, Cowan
Publikováno v:
Developmental neurobiology. 76(4)
The two cortical hemispheres of the mammalian forebrain are interconnected by major white matter tracts, including the corpus callosum (CC) and the posterior branch of the anterior commissure (ACp), that bridge the telencephalic midline. We show here
Autor:
Adam Mor, Ignacio Pérez de Castro, Chi Li, Brian O. Bodemann, Michael J. Soskis, Adrienne D. Cox, Shahryar G Saba, Duke Yim, John Miura, Ian M. Ahearn, Adam Fein, Trever G. Bivona, Mark R. Philips, Steven E. Quatela, Latasha Wright, Heidi H. Wiener, Craig B. Thompson
Publikováno v:
Molecular Cell. 21:481-493
K-Ras associates with the plasma membrane (PM) through farnesylation that functions in conjunction with an adjacent polybasic sequence. We show that phosphorylation by protein kinase C (PKC) of S181 within the polybasic region promotes rapid dissocia
Autor:
Mona D, Lee, Yuhong, She, Michael J, Soskis, Christopher P, Borella, Jeffrey R, Gardner, Paula A, Hayes, Benzon M, Dy, Mark L, Heaney, Mark R, Philips, William G, Bornmann, Francis M, Sirotnak, David A, Scheinberg
Publikováno v:
Journal of Clinical Investigation. 114:1107-1116
Peptide deformylase activity was thought to be limited to ribosomal protein synthesis in prokaryotes, where new peptides are initiated with an N-formylated methionine. We describe here a new human peptide deformylase (Homo sapiens PDF, or HsPDF) that
Publikováno v:
Nature Neuroscience. 14:1356-1358
A new study dissects ephrinB reverse signaling and identifies separate intracellular pathways regulating dendritic and synaptic development.
Autor:
Linda Hu, Michael J. Soskis, Jay B. Bikoff, Caleigh Mandel-Brehm, Seth S. Margolis, Zachary P. Wills, Hsin-Yi Henry Ho, Paul L. Greer, Alan R. Mardinly, John Salogiannis, Mustafa Sahin, David M. Lipton, Michael E. Greenberg
Publikováno v:
Cell. (3):442-455
SummaryThe mechanisms that promote excitatory synapse formation and maturation have been extensively studied. However, the molecular events that limit excitatory synapse development so that synapses form at the right time and place and in the correct