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1 F-FVIIa complex with the active conformer of integrin beta1.
2 rives the internalization of the Dab2 cargo, integrin beta1.
3 ading are also improved by overexpression of integrin beta1.
4 mplexes; they are FLNA with PrP or FLNA with integrin beta1.
5 ide exchange factors during the recycling of integrin beta1.
6 a fibroblasts, including integrin alpha4 and integrin beta1.
7 through p38MAPK-dependent phosphorylation of integrin beta1.
8 dition, ACK-2 was co-immunoprecipitated with integrin beta1.
9 conformation and affinity modulation of the integrin beta1.
10 cyte growth factor, serotonin synthesis, and integrin beta1.
11 fects of Klotho can be abolished by blocking integrin beta1.
12 anslational modification of the ECM receptor integrin beta1.
13 extracellular matrix protein laminin, and/or integrin beta1.
14 ng in mesodermal cells through activation of integrin-beta1.
15 among them were RRAS, AXL, ADAM9, FN14, and integrin-beta1.
17 as a tumor suppressor by directly targeting integrin-beta1, a key regulator of cancer cell metastasi
21 , and CYTH1-deficient cells showed a reduced integrin beta1 activation response, suggesting that CYTH
23 1, and consequently reversed TIMP-1-mediated integrin beta1 activation, cell survival signaling and a
24 n protein-dependent fibronectin assembly and integrin beta1 activation, involving the LIMK effectors
30 interactions mediate direct binding between integrin beta1 and Arg in vitro and in cells and activat
34 show that protein expression levels of both integrin beta1 and FAK are significantly decreased in au
36 B lymphoblasts as a model, we tested whether integrin beta1 and FAK-Src signaling are abnormally regu
37 in vitro and that its activation depends on integrin beta1 and heterotrimeric G proteins of the G12/
38 similar to those in the absence of epidermal integrin beta1 and include Wnt, but not sonic hedgehog,
39 iRNA resulted in perinuclear accumulation of integrin beta1 and its delayed return to the cell surfac
41 ssion but leads to dephosphorylation of both integrin beta1 and p38 mitogen-activated protein kinase
43 p38MAPK inhibitor SB203580 dephosphorylates integrin beta1 and that binding of the anti-CD26 antibod
44 athrin structures contain both Dab2 and AP2, integrin beta1 and transferrin localize in separate pits
45 osis of the Dab2- and AP2-dependent cargoes, integrin beta1 and transferrin receptor, respectively.
47 related with higher levels of membrane-bound integrin-beta1 and also with increased binding to fibron
48 l collecting duct cells had higher levels of integrin-beta1 and fibronectin and displayed increased i
52 te that human erythroblasts express CD44 and integrins beta1 and alpha4, three known receptors for OP
55 he cell surface, TIMP-1 co-localization with integrin beta1, and consequently reversed TIMP-1-mediate
58 sis confirmed CD63 interactions with TIMP-1, integrin beta1, and their co-localizations on the cell s
61 on of SNAIL, matrix metalloproteinase 2, and integrin beta1; and increased cell invasion in 3D organo
67 Together, these results describe a novel integrin beta1-Arg-p190RhoGAP pathway that regulates den
70 UB development was investigated by deleting integrin beta1 at initiation (E10.5) and late (E18.5) st
71 ocal adhesion kinase (FAK) and paxillin with integrin beta1 at the basal cell surface after short ter
72 null mice exhibited significant retention of integrin beta1 at the basolateral membrane and had tubul
73 tif led to reduced endocytosis, retention of integrin beta1 at the cell surface, and defective cell m
79 s demonstrate that the intracellular tail of integrin beta1 binds directly to Arg kinase and that thi
81 the infarcted myocardium was observed after integrin beta1 blockade but not integrin alpha4 or CXCR4
85 disturbing the interaction between AQP2 and integrin beta1 by mutating the RGD motif led to reduced
86 rc complex, activated by upstream reelin and integrin beta1, can initiate a cascade of phosphorylatio
88 h the mutant Ki-Ras protein and the aberrant integrin beta1-chain and increased expression of the mat
89 cts of the oncogenic cellular Ki-ras gene on integrin beta1-chain glycosylation may account, at least
93 adhesion, as well as N- and VE-cadherin and integrin beta1 cleavage, could be inhibited or significa
94 d increased cell spreading, cell flattening, integrin beta1 clustering and formation of mature focal
95 lines to demonstrate that upon miR-200 loss integrin beta1-collagen I interactions drive 3D in vitro
97 ace expression of adhesion molecules such as integrin beta1 concurrent with the loss of cell adhesion
98 ng/polymerizing machinery in order to extend integrin beta1-containing, filopodium-like protrusions (
99 ation and maturation of invadopodia, such as integrin beta1, cortactin, neuronal Wiskott-Aldrich synd
101 identification of an interaction between the integrin beta1 cytoplasmic domain and 14-3-3beta by usin
103 ed serine/threonine kinase that binds to the integrin beta1 cytoplasmic domain, dramatically stimulat
104 ssion occurs when overexpression of isolated integrin beta1 cytoplasmic domains blocks integrin activ
106 first evidence that interaction between the integrin beta1 cytoplasmic tail and kindlin-2, a member
107 main associated protein) associated with the integrin beta1 cytoplasmic tail but not with tails from
108 tructures of KRIT1 with ICAP1 and ICAP1 with integrin beta1 cytoplasmic tail to 2.54 and 3.0 A resolu
109 lysine-rich membrane-proximal segment in the integrin beta1 cytoplasmic tail, that Arg phosphorylates
117 , we found that 14-3-3beta co-localized with integrin beta1 during the early stage of cell spreading
120 gest that iEC-induced PI formation may alter integrin beta1 expression and posttranslational modifica
122 ion, invasion, anchorage-independent growth, integrin beta1 expression, and anoikis resistance with a
126 trogen and progesterone receptors as well as integrin-beta1 expression and the persistent expression
127 an increase in integrin alphaVbeta3 (but not integrin beta1) expression in VSMC that are subjected to
128 Grb2, known to be involved in the effects of integrin beta1-extracellular matrix interactions on acti
129 lates the trafficking and internalization of integrin beta1, facilitating its turnover at focal adhes
130 eta-cell apoptosis through activation of the integrin beta1-FAK/Akt pathway, leading to inhibition of
131 roduction and remodeling leading to elevated integrin beta1/FAK/Src signaling in melanoma cells.
132 Integrin alpha 4 (CD49d), in complex with integrin beta1, forms very late antigen-4 (VLA-4), which
134 mation in large part are unaffected when the integrin beta1 gene (Itgb1) is inactivated in motor neur
136 d apoptosis in vitro via an interaction with integrin beta1 heterodimers that enhances ILK activation
137 ibodies against E-Selectin or CD44H, but not integrin-beta1, ICAM-1 or VCAM-1, largely abolished the
138 expression of early mechanoresponsive genes (integrin beta1 (Igtb1) and cyclooxygenase-2 (Cox-2)) in
144 of this association by selective removal of INTEGRIN beta1 in RGPs leads to a decrease in progenitor
146 autostimulatory loop, we tested the role of integrin-beta1 in vitro and on the cystic development of
149 function-blocking antibodies against alpha6 integrin, beta1 integrin or the laminin-1/E8 domain reco
150 molecules and cytokine receptors, including integrin beta1, integrin alpha4, and CXC chemokine recep
152 eveal distinct functions for the alpha6beta4 integrin, beta1 integrins, and an E3 laminin receptor.
154 uggesting a potential role of the 14-3-3beta/integrin beta1 interaction in the regulation of cell adh
161 ght chain (MLC) by MLC kinase (MLCK) through integrin beta1 is required for actin stress fiber format
162 a provide genetic evidence that a functional integrin-beta1 is required for the early events leading
166 rupted branching altogether; it also reduced integrin beta1 (Itgb1) levels and attenuated MAPK signal
167 he treatment of antibodies against ITGA2 and integrin beta1 (ITGB1) subunits, as well as by type I co
168 tion of cyclin-dependent kinase 6 (CDK6) and integrin beta1 (ITGB1), which were functionally intercon
172 es revealed that RBP2 promoted expression of integrin-beta1 (ITGB1), which is implicated in lung canc
173 beta1 signaling through Arg recapitulate the integrin beta1 knock-out phenotype in a gene dose-sensit
174 fibronectin production and signaling through integrin beta1, leading to cytoskeletal reorganization w
176 By manipulating intracellular and surface integrin beta1 levels, we show that migration speed corr
177 esion and spreading on fibronectins, reduced integrin beta1 localization to lipid rafts, and decrease
178 esponds to the specificity loop of beta3, to integrin beta1 markedly enhanced IGF1 binding to beta1,
179 Our analysis of this mutant model shows that integrin beta1-mediated cell-matrix adhesion is a major
180 tors of TGFbeta signaling, lysyl oxidase, or integrin beta1-mediated mechanosignaling reduced or bypa
182 sulinomas as well as in primary islets, with integrin beta1 mRNA and protein detected in all three ce
183 n to facilitate the selective translation of integrin beta1 mRNA, which drives the translationally co
186 pacities, which were associated with altered integrin-beta1 N-glycosylation, in particular with highe
187 ed limbal epithelial sheets was positive for integrin beta1, negative for K3, but weakly positive for
189 ody 202.36 dephosphorylates both p38MAPK and integrin beta1 on Karpas 299, leading to loss of cell ad
190 pression correlated with the level of active integrin beta1 on the cell surface independent of cell a
191 rtially overcome by antibodies that activate integrin beta1 or by the addition of Mn2+, an integrin a
192 chanical stretch or overexpression of either integrin beta1 or integrin beta3 prevented its down-regu
196 hibiting the binding and/or activity of ILK, integrin beta1, or SPARC resulted in increased apoptosis
198 dermis increased myofibroblast activity and integrin beta1/pFAK/pAKT mechanosignaling in tumor cells
199 In our studies, we found that both MARCO and integrin beta1 play a role in the activation of the Src
200 Mice with podocyte specific deletion of integrin beta1 (podocin-Cre beta1-fl/fl mice) are born n
201 BP-1 that activates the Src/FAK pathway, via integrin beta1, potentiating schwannoma's proliferation
204 is defective in integrin binding normalizes integrin beta1 protein levels and restores focal adhesio
205 re accompanied by a significant reduction in integrin beta1 protein levels due to accelerated degrada
206 Abi3bp controlled CPC differentiation via integrin-beta1, protein kinase C-zeta, and v-akt murine
207 ription factors Gata-3 and Jun B, as well as integrin beta1, proteoglycan 2, the RhoB oncogene, and d
209 three known receptors for OPN, and that the integrin beta1 receptor is involved in transmitting the
210 itical sequence in the cytoplasmic domain of integrin beta1 recognized by ACAP1 and showed that this
211 lation of cell migration through controlling integrin beta1 recycling and localization to lipid rafts
212 e find that ARNO/cytohesin 2 is required for integrin beta1 recycling, whereas GRP1/cytohesin 3 is di
213 ed PIs altered the glycosylation patterns of integrin beta1, resulting in a higher molecular weight f
214 data demonstrate an in vivo crucial role of integrin beta1 signaling events in mediating cross-talk
215 Moreover, genetic manipulations that reduce integrin beta1 signaling through Arg recapitulate the in
221 at the inactivation of the gene encoding the integrin beta1 subunit (Itgb1) with a Cre-loxP approach
222 ACER2DeltaN36 inhibited the glycosylation of integrin beta1 subunit and Lamp1, suggesting that its mi
223 fying enzyme TRAF6 as an interactor with the integrin beta1 subunit and regulator of integrin alpha3b
224 mice with a CNS restricted knock-out of the integrin beta1 subunit gene (Itgb1-CNSko mice) have defe
225 bserved that the tissue-specific loss of the integrin beta1 subunit in striated muscle results in a n
227 n Galpha13 and the cytoplasmic domain of the integrin beta1 subunit plays a critical role in beta1-de
228 ed muscle results in a near complete loss of integrin beta1 subunit protein expression concomitant wi
230 ts the ligand-independent association of the integrin beta1 subunit with EGFR and results in inhibiti
231 expression of ligand-induced epitopes on the integrin beta1 subunit, a property consistent with occup
233 ile a function-neutralizing antibody against integrin-beta1 suppresses MMP-9-induced phosphorylation
234 ution in membrane-proximal NPIY motif in the integrin beta1 tail and show that this mutant substantia
235 This is the first demonstration that the integrin beta1 tail can regulate centrosome function, th
238 e surface, that KRIT1 directly competes with integrin beta1 to bind ICAP1, and that KRIT1 antagonizes
240 not PACSIN2-MA prevents the localization of integrin beta1 to focal adhesions (FA) and filamin to st
241 membrane-mediated rescue requires functional integrin beta1 to maintain epithelial cell-cell adhesion
248 t which NSCs undergo asymmetrical divisions, integrin beta1 was unevenly distributed in some mitotic
249 re, antibodies that either activate or block integrin beta1 were used to demonstrate that activation
250 nous targets of miR-124, laminin gamma 1 and integrin beta1, were identified, both of which are highl
251 n addition, the p67 LBP+ T cells express the integrin beta1, which associates with alpha6 in the lami
252 EPAC1 promotes activation and trafficking of integrin beta1, which plays an essential role in PDA mig
253 ro-PrP enhances association between FLNA and integrin beta1, which then promotes cell spreading and m
254 tes NR1 and NR2 receptors, and downregulates integrin-beta1, while a function-neutralizing antibody a
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