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1 Rho GEFs in animals fall into two structurally distinct
4 These results for the first time define a Rho GEF involved in vascular smooth muscle cell growth a
7 nd metaphase cell rounding through GEF-H1, a Rho-GEF inhibited by microtubule binding, RhoA, and its
8 eleton and provide the first evidence that a Rho-GEF transduces signals between G protein-coupled rec
10 ted mutagenesis, phosphorylation of alphaPIX Rho-GEF serines 225 and 488 is required for activation o
11 tandem DH-PH arrangement is conserved among Rho GEFs, the presence of the CRD is unique to Vav famil
14 , as well as a redesign of existing RhoA and Rho GEF activity assays so that they work in nuclear sam
15 l can be also used for other Rho GTPases and Rho GEFs, which have also been found in the nucleus.
18 uggest that interactions between septins and Rho-GEFs provide a new targeting mechanism for GTPases i
19 y demonstrated that GEF-H1 and Ect2, another Rho-GEF previously identified to control actomyosin forc
21 eotide exchange factor (LARG), also known as Rho GEF 12 (ARHGEF12) acts downstream of clustered ICAM-
22 luding PDZ-RhoGEF (PRG), leukemia-associated Rho GEF (LARG), p115-RhoGEF (p115), lymphoid blast crisi
24 eotide exchange factors, leukemia-associated Rho GEF (LARG; GEF, guanine nucleotide exchange factors)
27 -H1/GEF-H1/AHRGEF2, a microtubule-associated Rho-GEF, was necessary for the inhibitory effect of colc
28 Our data suggest the interaction between Rho-GEFs and anillins is an important step in the signal
31 action of LARG and related G-protein-coupled Rho GEFs with RhoA without a detectable effect on other
32 e oncogenic Rho-guanine nucleotide exchange (Rho-GEF) protein Lbc, and a unique region capable of bin
34 Rho-type guanine nucleotide exchange factor (Rho-GEF) homologous to Beta-PIX and Alpha-PIX in mammals
35 the Rho guanine nucleotide exchange factors (Rho GEFs) activate Rac GTPases to regulate cell migratio
36 Rho guanine nucleotide exchange factors (Rho GEFs) and Rho GTPases are among the key regulators o
37 Rho guanine nucleotide exchange factors (Rho GEFs) transduce extracellular signals to Rho, and we
38 family guanine nucleotide exchange factors (Rho-GEFs) regulate a variety of processes involving cell
39 cular characterization of a novel Dbl family Rho GEF, GEF64C, that promotes axon attraction to the ce
43 ast two-hybrid to identify obscurin, a giant Rho-GEF protein, as the major cytoplasmic ligand for sAn
46 anlagen expresses Daam1 and its interacting Rho-GEF (WGEF), which compose one PCP/noncanonical Wnt p
50 in-protein interaction with G protein-linked Rho GEFs, thus providing a novel potential mechanism for
53 ce potentially misleading results since many Rho GEFs can interact with multiple Rho proteins promisc
54 s context, it is worth remembering that many Rho GEFs can mediate both catalysis-dependent and indepe
57 homology to several members of the family of Rho GEFs that includes such oncogenes as Dbl, Vav, Tiam,
61 short hairpin RNA-based functional screen of Rho-GEFs for their roles in leukocyte chemotaxis and ide
62 ant RhoAL63, it does not affect Galpha12- or Rho GEF-induced RhoA activation or RhoAL63-GTP binding i
65 ected with dominant negative mutants of p115-Rho GEF or RhoA, and by inhibitors of Rho kinase (ROCK).
69 mple of a general mechanism whereby receptor/Rho GEF pairings play an important role in receptor tyro
70 DH-PH domain of LARG, a G-protein-regulated Rho GEF involved in RhoA activation, and subsequent vali
73 ise inner nuclear placement relies on SPIKE1 Rho-GEF, SUPERCENTIPEDE1 Rho-GDI, and ACTIN7 (ACT7) func
75 Structural requirements for function of the Rho GEF (guanine nucleotide exchange factor) regulator o
77 re essential for cell transformation via the Rho GEF activity or cytoskeletal targeting function.
78 endent manner, and when coexpressed with the Rho GEF Ect2, is sufficient to convert the normally quie
83 events to create mutant mice that lacked the Rho-GEF and/or the protein kinase D-binding domains.
84 was increased similarly in mice lacking the Rho-GEF and PKD-binding domains and wild-type controls.
86 protein 9 (RanBP9) as a novel ligand of the Rho-GEF domain and showed that binding is specific, with
88 e EphB receptor induces translocation of the Rho-GEF kalirin to synapses and activation of Rac1 and i
90 s the protein levels and localization of the Rho-GEF Rgf3, which in turn modulates active Rho1 levels
94 during myofibrillogenesis indicated that the Rho-GEF domain assembles into sarcomeres before RanBP9,
98 the Rho family of guanosine triphosphatases (Rho GEF GTPases), as a protein interacting with harmonin
99 e domain, several spectrin-like domains, two Rho GEF domains each containing a Dbl-homology (DH) and
100 nteracts physically and/or functionally with Rho GEFs; however this does not appear to lead to or res