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1 VS13 as novel cytokines that bind to a novel cytokine receptor.
2 t signaling pathway associated with a type I cytokine receptor.
3 ell as aberrant activation of non-B lymphoid cytokine receptors.
4 s (JAKs) are regulators of signaling through cytokine receptors.
5 hain (gammac) is a key component of multiple cytokine receptors.
6 todomain shedding of cytokine precursors and cytokine receptors.
7 s model may well generalize to other class I cytokine receptors.
8 olecules, which impairs signaling of several cytokine receptors.
9 urgery to determine the presence of selected cytokine receptors.
10 through the B-cell receptor (BCR), CD40, and cytokine receptors.
11 tion of many type I and type II inflammatory cytokine receptors.
12 y regulates JAK family kinases downstream of cytokine receptors.
13 th targeted defects in specific cytokines or cytokine receptors.
14 l form four-helix bundles and bind to type I cytokine receptors.
15 30, a common component of many heterodimeric cytokine receptors.
16 amilies of cell surface receptors, including cytokine receptors.
17 any cell surface receptors, including Ag and cytokine receptors.
18 ell antigen receptors and common gamma chain cytokine receptors.
19  and regulating the expression of epithelial cytokine receptors.
20 otein that mediates signalling from multiple cytokine receptors.
21 t sharing any structural similarity with the cytokine receptors.
22 egulating NK ligands, adhesion molecules and cytokine receptors.
23 rincipal transcription factors downstream of cytokine receptors.
24 onse through negative-feedback inhibition of cytokine receptors.
25 ivation required the full pathway, including cytokine receptors acting as scaffolds and docking sites
26                                              Cytokine receptor activation through loss of O-glycosyla
27 ion of mutual rotations of the TM domains in cytokine receptor activation.
28 d elevated levels of the proosteoclastogenic cytokine receptor activator for nuclear factor-kappaB li
29 ng osteoclast differentiation induced by the cytokine receptor activator of NF-kappaB ligand (RANKL).
30                            Production of the cytokine receptor activator of NFkappaB ligand (RANKL) b
31 ic precursors depends upon expression of the cytokine receptor activator of NFkappaB ligand (RANKL) b
32                                          The cytokine receptor activator of NFkappaB ligand (RANKL) p
33                                          The cytokine receptor activator of nuclear factor-kappaB lig
34 ogen-associated molecular pattern receptors, cytokine receptors, adipokine receptors, and hormones.
35 gonists, antigen receptor cross-linking, and cytokine receptors, all rely on ubiquitination events to
36      Shedding of the extracellular domain of cytokine receptors allows the diffusion of soluble recep
37 ature, and is enriched for genes involved in cytokine receptor and JAK-STAT signaling.
38                        Frequent mutations in cytokine receptor and Janus kinase (JAK)/signal transduc
39 terized by genomic alterations that activate cytokine receptor and kinase signaling.
40 gh rates of mutations in factors involved in cytokine receptor and RAS signaling (62.2%), hematopoiet
41  by activating mutations in genes regulating cytokine receptor and RAS signalling (67% of cases; NRAS
42  expression of genes encoding key cytokines, cytokine receptors and adhesion molecules that determine
43 xperiments were performed to determine which cytokine receptors and cell types are involved in the pa
44 ontrolled by the integration of signals from cytokine receptors and germline-encoded activation and i
45 study, we considered the cooperation between cytokine receptors and integrin pathways in Th17-osteocl
46 at associates with the common gamma chain of cytokine receptors and is recurrently mutated in T-cell
47 latory cytokines uses the type I and type II cytokine receptors and pharmacological targeting of thes
48 etween high sequence conservation of TMDs of cytokine receptors and the ability to transmit structura
49 mplexes of the common gamma-chain (gamma(c)) cytokine receptors and their cytokines have been solved.
50                   Aberrant signaling through cytokine receptors and their downstream signaling pathwa
51 erged that upregulated key memory-associated cytokine receptors and transcription factors and showed
52 that integrates signals from Toll receptors, cytokine receptors, and inhibitor of kappa-B kinase-beta
53 mechanism whereby receptor tyrosine kinases, cytokine receptors, and integrins activate Src is not kn
54 g transcription factors, signaling pathways, cytokine receptors, and microRNAs.
55 receptors, toll-like receptors, inflammatory cytokine receptors, and mitogens.
56 tion markers (CD69 and CD154), chemokine and cytokine receptors, and proliferation potential.
57 lly involve genes encoding tyrosine kinases, cytokine receptors, and transcription factors.
58 g signaling components of antigen receptor-, cytokine receptor-, and chemokine receptor-mediated sign
59  soluble cytokine receptor (sIL-2R), and one cytokine receptor antagonist (IL-1RA) were significantly
60 ntified a role for the IL-27p28 subunit as a cytokine receptor antagonist.
61 findings demonstrate that such specific anti-cytokine receptor antagonists represent a new class of d
62 mab, tumor necrosis factor-alpha inhibitors, cytokine receptor antagonists, and bronchial thermoplast
63     Pattern recognition receptors (PRRs) and cytokine receptors are key players in the initiation of
64                                      Soluble cytokine receptors are normal constituents of body fluid
65 ling for IFNgamma and other myelosuppressive cytokine receptors as a common mediator of signals for h
66 ular membrane proximal domain of homodimeric cytokine receptors as a key regulator of intracellular s
67 ly upregulation of a number of cytokines and cytokine receptors, as key molecular components of an in
68 splayed elevated expression of cytokines and cytokine receptors, as well as neutrophil influx consist
69  illuminating the molecular basis of the JAK-cytokine receptor association.
70      Mutations in signaling molecules of the cytokine receptor axis play a central role in myeloproli
71 ength and duration because of differences in cytokine-receptor binding affinity, receptor expression
72 rations of the cytokines, with the resulting cytokine-receptor binding rates very close to the limits
73 o calculate the rate constant of the initial cytokine-receptor binding to form a 1ratio1 complex.
74 r has served a pivotal role as the prototype cytokine receptor both structurally and functionally.
75 T cells encompass a variety of cytokines and cytokine receptors but are controlled by a 'guardian' tr
76 mediated directly via activation of neuronal cytokine receptors, but rather, indirectly via IL-1 rece
77 man single-pass TM proteins and validated in cytokine receptors by the TM domain structure of the cyt
78 demonstrate that components of heterodimeric cytokine receptors can also activate JAK2-V617F.
79      Recent findings, however, indicate that cytokine receptors can regulate immune cell functions by
80  Downregulation of HIF-1alpha suppressed WBC cytokine receptors CCR1, -2, and -4, which are necessary
81 on of the transcription factor T-bet and the cytokine receptor chain IL-12Rbeta2, which enabled the c
82 re combined immunodeficient mice lacking the cytokine receptor common gamma chain (gammac(-/-)) and c
83  receptors by the TM domain structure of the cytokine receptor common subunit beta and its P441A-subs
84 igenetic impairment of the tightly regulated cytokine-receptor communications in tumor microenvironme
85 tations are drivers of T-ALL and require the cytokine receptor complex for transformation.
86  JAK3 mutants needed to bind to a functional cytokine receptor complex to constitutively activate STA
87               Receptor activation involves a cytokine-receptor complex with a 1ratio2 stoichiometry.
88 fferent receptor polypeptide to complete the cytokine-receptor complex.
89 Sharing of receptor subunits among different cytokine receptor complexes adds to the intricate landsc
90 s has impeded efforts aimed at crystallizing cytokine-receptor complexes.
91 ces in charge complementarity among the four cytokine-receptor complexes.
92 aracterized by high expression of the type I cytokine receptor CRLF2 caused by either immunoglobulin
93 novel link between the ECM protein Matn4 and cytokine receptor CXCR4 involved in the regulation of HS
94 1 viral replication by selectively targeting cytokine receptor CXCR4.
95                                  Analysis of cytokine receptor deficient mice demonstrated that type
96                                        Using cytokine receptor-deficient mice, we show that interleuk
97 ling modulated STAT activation downstream of cytokine receptors differently to control the TH17 cell-
98  rigidification in the context of a liganded cytokine receptor dimer is a key mechanism for the trans
99 okines (synthekines) that drive formation of cytokine receptor dimer pairings that are not formed by
100 mode of cytokine action in which DL1 changes cytokine receptor distributions on hematopoietic cells,
101 ciation of the cytokine p28 with the soluble cytokine receptor EBV-induced gene 3 (EBI3).
102                                              Cytokine receptors elicit several signaling pathways, bu
103 stream effectors of the IFN-gamma and gammac cytokine receptors, eliminated the IFN signature and pre
104 ion, JAK2V617F, activates the 3 main myeloid cytokine receptors (erythropoietin receptor, granulocyte
105  is detected with a battery of type I and II cytokine receptors, except granulocyte colony-stimulatin
106 lt provides the first full view of a class I cytokine receptor, exemplifying the architecture of more
107 We therefore assessed the effects of EBI3 on cytokine receptor-expressing cells.
108 of Th2 cell differentiation by orchestrating cytokine receptor expression and cytokine responsiveness
109                                              Cytokine receptor expression and signaling upon exposure
110 dulating IL-12-STAT4 and IL-6-STAT3 axes and cytokine receptor expression at the DC-T cell interface.
111 L-12 and IL-18 correlated with the levels of cytokine receptor expression by NK and NKT cells.
112  Transcription factor-mediated regulation of cytokine receptor expression is a common mode of alterin
113        This was not due to downregulation of cytokine receptor expression or an inability to signal t
114    TCR signal strength controlled downstream cytokine receptor expression, linking the two components
115 genic responses by controlling hematopoietic cytokine receptor expression.
116 ceptor is unrelated to previously identified cytokine receptor families.
117 d that ORF54 can also target proteins of the cytokine receptor family and the mechanism of downregula
118 ents targeting BLyS or other members of this cytokine receptor family are also being tested in clinic
119 ceptor is an archetype member of the class I cytokine receptor family, comprising receptors with fund
120 ectin glycoprotein ligand-1 (PSGL-1, CD162), cytokine receptors, Fc receptors, integrins including al
121                Despite the importance of the cytokine receptor flt3 in dendritic cell (DC) homeostasi
122   The development of NH cells depends on the cytokine receptor Flt3, which is required for the effici
123 g signal derived from pattern recognition or cytokine receptors, followed by a second signal derived
124 this study, we used mice in which the common cytokine receptor for IL-4 and IL-13, namely the IL-4Ral
125 matory marker myeloperoxidase (MPO), and the cytokine receptor for nuclear factor kappa-B ligand (RAN
126   Although there are dozens of cytokines and cytokine receptors, four Jaks, and seven Stats, it seems
127                        Deletion of the gp130 cytokine receptor from sympathetic neurons prevented the
128 ukemogenesis: mutations in the hematopoietic cytokine receptor (G-CSFR) in combination with the secon
129  be activated via receptor tyrosine kinases, cytokine receptors, G-protein coupled receptors and liga
130  knockout mice in which IL-7Ralpha or common cytokine receptor gamma chain (gamma(c)) genes were dele
131 -9, IL-15, and IL-21, IL-2 shares the common cytokine receptor gamma chain, gamma(c), which is mutate
132 subunit that is highly related to the common cytokine receptor gamma chain, gamma(c).
133 ropic type 1 cytokine that shares the common cytokine receptor gamma-chain, gamma(c), with IL-2, IL-4
134 IFNG, IL10, IL12B, IL18, IL1beta, IL8) and 1 cytokine receptor gene (IL12RB1).
135 a role for cytokine proteins and cytokine or cytokine receptor gene polymorphisms in smallpox vaccine
136 plored associations between SNPs in cytokine/cytokine receptor genes and cellular immunity in subject
137 fied, including four involving new kinase or cytokine receptor genes and seven involving new partners
138 t roles in normal hemopoiesis, including the cytokine receptor genes CRLF2 and EPOR, all members of t
139 -gene genetic screen (across 32 cytokine and cytokine receptor genes) in a racially diverse cohort of
140 ted by genetic polymorphisms in cytokine and cytokine receptor genes.
141 lls, caused by down-regulation of the common cytokine receptor, glycoprotein 130.
142 es such as TCR, costimulatory molecules, and cytokine receptors governs the magnitude of Akt activati
143                            Disruption of the cytokine receptor gp130 gene in Muller glia reduces CNTF
144 sed pairing of the OSMR subunit with another cytokine receptor, gp130, resulting in overrepresentatio
145 pharmacological targeting of these cytokines/cytokines receptors has proven to be efficacious in trea
146 nstrate that impaired expression of a single cytokine receptor helps maintain Treg cell-suppressive f
147     We show that a wide range of non-natural cytokine receptor hetero-dimers are competent to elicit
148 iated with an amino acid substitution in the cytokine receptor homology domain 1 of LEPR.
149 g creates active receptor dimers for class 1 cytokine receptors; however, the detailed molecular mech
150 ke receptor 9 (TLR9) along with inflammatory cytokine receptor IFN-gamma receptor (IFN-gammaR) as ess
151 17 cells in part by inhibiting expression of cytokine receptor IL-1R1.
152 ged approach of sustaining expression of the cytokine receptors IL-6Ralpha and gp130, enhancing expre
153 e gene programs, including expression of the cytokine receptors IL-6Ralpha and IL-7R.
154 ar to human MAITs, mouse MAITs expressed the cytokine receptors IL-7R, IL-18Ralpha, and IL-12Rbeta an
155 he expression of Bcl6 and the TFH-associated cytokine receptor Il6ra Importantly, in vivo studies rev
156 frequencies and expression levels of Flt3, a cytokine receptor important for lymphoid priming and the
157                    Indeed, IL7R was the only cytokine receptor in CRLF2-rearranged B-ALL cells signif
158 rotein-coupled receptor, and a heterodimeric cytokine receptor in living cells with excellent sensiti
159 The thrombopoietin receptor, MPL, is the key cytokine receptor in MPN development, and these mutation
160 e to be a new concept for ITAM regulation of cytokine receptors in different tissue microenvironments
161 gp130, the signaling subunit of neuropoietic cytokine receptors in peripheral nerve regeneration.
162           The spatiotemporal organization of cytokine receptors in the plasma membrane is still debat
163 egulated expression of several cytokines and cytokine receptors, including interleukin 15 receptor al
164 gulated by coordinated signals from multiple cytokine receptors, including KIT.
165  receptor tyrosine kinases or JAK-associated cytokine receptors, including leptin, insulin, growth ho
166 ed in expression of a panel of cytokines and cytokine receptors, including several ligand-receptor pa
167                                     The same cytokine receptor independence as for JAK3(L857P) was ob
168                         Antibody blockade of cytokine receptors inhibited invasion and confirmed that
169 ogy and medicine, yet the mechanism by which cytokine receptors initiate signaling is enigmatic.
170 ion of functional clusters, such as cytokine-cytokine receptor interaction (especially CXC-chemokine)
171 ups, enriched for genes involved in cytokine-cytokine receptor interaction and glutamate receptor sig
172 l signaling pathways, including the cytokine-cytokine receptor interaction pathway, which can promote
173 ithin the inflammatory response and cytokine-cytokine receptor interaction pathways, including Csf1 a
174  a molecular signature of inhibited cytokine-cytokine receptor interaction with downregulation of IL-
175 enes involved in cytokine activity, cytokine-cytokine receptor interaction, chemokine activity, and G
176 genes encoding proteins involved in cytokine-cytokine receptor interactions and NK cell-mediated cyto
177 ith PFS more than 6 months included cytokine-cytokine receptor interactions, drug transporters, and m
178 nrichment for MAP kinase signaling, cytokine-cytokine receptor interactions, JAK-STAT signaling, and
179 nderstanding of the structural principles of cytokine-receptor interactions has advanced, mechanism-b
180 ies to common gamma cytokines, inhibitors of cytokine-receptor interactions, and JAK kinase inhibitor
181 alt bridges are present at the high affinity cytokine-receptor interfaces, whereas hydrophobic intera
182 n levels, physiological cytokine levels, and cytokine-receptor intracellular trafficking kinetics.
183 e 2 (TYK2) participates in signaling through cytokine receptors involved in immune responses and infl
184            Signalling in lymphocytes through cytokine receptors is critical for their development, ac
185          Insight in the complex formation of cytokine receptors is crucially important for engineerin
186                    A hallmark of the class I cytokine receptors is the class I cytokine receptor sign
187 eukemia virus (MPL), abnormally activate the cytokine receptor/JAK2 pathway and their downstream effe
188 ell-cycle regulation, and tumor suppression; cytokine receptor, kinase, and Ras signaling; and chroma
189  that commonly perturb lymphoid development, cytokine receptors, kinase and Ras signaling, tumor supp
190 e marrow chimeras, we compared wild-type and cytokine receptor knockout CD8(+) T cells within the sam
191 aling events and show that relatively simple cytokine receptors like GHRs are able to form higher ord
192                                              Cytokine receptor-like factor 1 (CRLF1) was among the mo
193                       This gene set includes cytokine receptor-like factor 1 (CRLF1), which is up-reg
194                                              Cytokine receptor-like factor 2 (CRLF2) and mutated Janu
195                                Expression of cytokine receptor-like factor 2 (CRLF2) has recently bee
196 D) in interleukin-7 receptor alpha (IL7R) or cytokine receptor-like factor 2 (CRLF2) have been descri
197       Within the Ph-like ALL cohort, 61% had cytokine receptor-like factor 2 (CRLF2) overexpression.
198 rrangements of the cytokine receptor subunit cytokine receptor-like factor 2 (CRLF2), and other tumor
199 lisib resulted in near eradication of ALL in cytokine receptor-like factor 2 (CRLF2)/JAK-mutant model
200  with markedly elevated expression of CRLF2 (cytokine receptor-like factor 2).
201 igration by regulating the expression of the cytokine receptor M-CSFR and the chemokine receptor CXCR
202                                Hence, type I cytokine receptors may be activated in leukemia through
203 ic neurodegeneration may be accelerated by a cytokine-receptor mediated apoptotic pathway, as shown i
204 impaired ability to secrete IFN-gamma during cytokine receptor-mediated responses, whereas immunorece
205 ponents that mediate B cell receptor- and or cytokine receptor-mediated signaling to promote the diff
206        T1E28z is coexpressed with a chimeric cytokine receptor named 4alphabeta (combination termed T
207       T1E28z was coexpressed with a chimeric cytokine receptor named 4alphabeta (combination termed T
208 nd/or environmental cues and act via cognate cytokine receptors on target cells, stimulating specific
209 genes important in homeostatic regulation of cytokine receptors or TLR-mediated signal transduction p
210                      Here, we identified the cytokine receptor OSMR as a direct target gene of the tr
211              Thus, our work has identified a cytokine-receptor pair with important function in regula
212 rent study, we investigated the role of this cytokine/receptor pair in acute intestinal injury/repair
213              We show here that, unlike other cytokine receptors, phosphorylation of STRA6 is not simp
214 ck of efficacy, either of which results from cytokine receptor pleiotropy and/or undesired activation
215 provide the rheostat-like regulation for the cytokine receptor PRLR in its cytoplasmic loop dimerizat
216  To test the hypothesis that serum cytokines/cytokine receptors provide prognostic information in the
217 nd most transcription factors, cytokines and cytokine receptors related to the CD4 lineage, despite t
218                               This different cytokine receptor requirement correlated with different
219               Genetic ablation of individual cytokine receptors revealed that both IFN-gamma and IL-1
220                               Alterations in cytokine receptor signal transduction have emerged as on
221 transcription 5) is an essential mediator of cytokine receptor signaling and plays important roles in
222 s by which TCR signaling and proinflammatory cytokine receptor signaling cooperate in these processes
223 lterations that lead to activated kinase and cytokine receptor signaling in Ph-like ALL and demonstra
224                        Our data suggest that cytokine receptor signaling is required for tumor cell s
225 erapeutic targets in ALL, including aberrant cytokine receptor signaling mediated by rearrangements a
226                             The evolution of cytokine receptor signaling parallels that of the immune
227 he inhibitory effects were downstream of TH2 cytokine receptor signaling pathways.
228                                  We focus on cytokine receptor signaling that is mimicked by activati
229 ssue, Cui et al. and Siegel et al. show that cytokine receptor signaling through the transcription fa
230 oss-functional negative regulator of TLR and cytokine receptor signaling via degradation of the recep
231       This review describes the evolution of cytokine receptor signaling, focusing on the class I and
232  included IL-1R/TLR signaling, type I and II cytokine receptor signaling, mitochondrial dysfunction,
233 genomic alterations that activate kinase and cytokine receptor signaling.
234 s shared with conventional costimulatory and cytokine receptor signaling.
235 ldren initiated by mutations that deregulate cytokine receptor signaling.
236 CS) proteins serve as negative regulators of cytokine receptor signaling.
237 s a cytokine-inducible negative regulator of cytokine receptor signaling.
238 a mutated chaperone constitutively activates cytokine receptor signaling.
239  by which the extracellular matrix regulates cytokine receptor signaling.
240                        Genes for chemokines, cytokine receptors, signaling molecules, complement, and
241 ed beta2-integrin tail interactions restrict cytokine receptor signalling, survival, maturation and m
242 e deficiency of Lnk, a negative regulator of cytokine receptor signalling.
243                 Lymphocytes integrate Ag and cytokine receptor signals to make cell fate decisions.
244 he class I cytokine receptors is the class I cytokine receptor signature motif (WSXWS).
245 rosis factor-alpha (TNF-alpha)), one soluble cytokine receptor (sIL-2R), and one cytokine receptor an
246 expression or an inability to signal through cytokine receptors since phosphorylation of STAT protein
247 enalidomide on receptor turnover were Type I cytokine receptor specific, as evidenced by coregulation
248 IL-2Rbeta induce marked subunit- and soluble cytokine receptor-specific behavioral disturbances, whic
249 hoblastic leukemias (B-ALLs) overexpress the cytokine receptor subunit CRLF2, which may confer a poor
250  leukemia (B-ALL) with rearrangements of the cytokine receptor subunit cytokine receptor-like factor
251 mutations in the common gamma (gammac) chain cytokine receptor subunit give rise to severe combined i
252                  Using multiple cytokine and cytokine receptor subunit knockout mice, we demonstrate
253 ry factor (LIF), signal via the common GP130 cytokine receptor subunit.
254 y all TLRs, RLRs and IL-1R, as well as other cytokine receptors such as IL-18 receptor.
255 yrosine kinases associate with heterodimeric cytokine receptors such as IL-7 receptor or IL-9 recepto
256 eceptors (RLRs; RIG-I and MDA-5), as well as cytokine receptors such as interleukin 1 receptor (IL-1R
257 ne receptors such as Toll-like receptors and cytokine receptors such as those in the TNF (tumor necro
258 -inflammatory, highly relevant cytokines and cytokine receptors, such as IL-4Ralpha, IL-13, IL-31, an
259 sociate with a functional homodimeric type I cytokine receptor, suggesting that, although acquiring J
260 lso demonstrated in mRNAs encoding six other cytokine receptors, suggesting a novel mode through whic
261 eric architectures that are unique among the cytokine receptor superfamily but conserved between diff
262 e a common signaling intermediate in diverse cytokine receptor systems.
263 io2 native complex are similar for the three cytokine-receptor systems.
264 canonical TGF-beta signaling mediated by the cytokine receptor TGFbetaR1 in NK cells.
265 the thrombopoietin receptor (TpoR), a type 1 cytokine receptor that controls the production of blood
266 or-inducible 14 (Fn14) is a highly inducible cytokine receptor that engages multiple intracellular si
267 rally occurring splice isoform of the gammac cytokine receptor that is produced by activated T cells
268 1 receptor alpha (IL-31RA) is a novel Type I cytokine receptor that pairs with oncostatin M receptor
269 l from RBP into cells, and it functions as a cytokine receptor that, on binding holo-RBP, activates J
270 llular RBP into cells, and it functions as a cytokine receptor that, upon binding holo-RBP, triggers
271 ation involves a persistent loss of specific cytokine receptors that determines the functional potent
272  cell memory by modulating the expression of cytokine receptors that influence the differentiation an
273 anus kinase (JAK) inhibitors have shown that cytokine receptors that signal through the JAK/STAT sign
274 late expression on memory precursor cells of cytokine receptors that support terminal differentiation
275  receptor-bound JAK2, based on an archetypal cytokine receptor, the growth hormone receptor.
276                               Common to both cytokine receptors, the IL-2 receptor beta (IL2Rbeta) ch
277 minor effects, and in the presence of type I cytokine receptors, the mutations do not affect JAK2 act
278          Despite the myriad of cytokines and cytokine receptors, there are relatively few signaling m
279  via Toll-like Receptor (TLR) and TNF-family cytokine receptor (TNFR) signaling pathways.
280 that the signaling pathways triggered by the cytokine receptor TNFR1 play a more significant role in
281  recognition receptor TLR2- and inflammatory cytokine receptor TNFR1-mediated signaling pathways.
282 integrate signals from G protein-coupled and cytokine receptor to evoke neurite outgrowth in Neuro2A
283 rmore, we describe the molecular switch from cytokine receptor to pre-BCR signaling, how this pathway
284 ly replaced the requirement of a homodimeric cytokine receptor to promote the activation and transfor
285 eceptor as an archetype model of homodimeric cytokine receptors to address the role of the extracellu
286 ignals from Ag, costimulatory receptors, and cytokine receptors to control cell division, differentia
287 ijacked cellular genes encoding cytokines or cytokine receptors to disrupt host cell communication.
288 V617F requires interactions with homodimeric cytokine receptors to elicit its transforming signal.
289 ferentiation by modulating the expression of cytokine receptors to help specify and maintain differen
290                To assess the contribution of cytokine receptors to the differentiation of T cell subs
291  further revealed significant differences in cytokine receptor transcript levels (including IL-22RA1
292  delicate, intracellular feedback loop among cytokine receptors, transcription factors and miRNAs.
293 k2, the cognate tyrosine kinase for numerous cytokine receptors, undergoes multisite phosphorylation
294 pairs Stat3 responses downstream of multiple cytokine receptors via selective, posttranscriptional su
295                  We found that cytokines and cytokine receptors were the dominant class of genes exhi
296 (RBP) into cells, and it also functions as a cytokine receptor which activates JAK/STAT signaling.
297 lecules mediate their effects through type 1 cytokine receptors, which bind cytokines with a characte
298 come by costimulation through CD28 or innate cytokine receptors, which dictated the fate of their pro
299 ranscription-factors (T-bet and Blimp-1) and cytokine receptors while paradoxically repressing genes
300 synthekine ligands that dimerized a JAK/STAT cytokine receptor with a receptor tyrosine kinase (RTK)

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