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1 t BM HSC compartment by expression of CD114 (G-CSF receptor).
2 ine surface required for dimerization of the G-CSF receptor.
3  induction of gene transcription through the G-CSF receptor.
4 ical complex between alpha9beta1 and ligated G-CSF receptor.
5 f G-CSF signalling, we coexpressed exogenous G-CSF receptor.
6 ion containing the first tyrosine residue of G-CSF receptor.
7  G-CSF required the C-terminal region of the G-CSF receptor.
8 y active structures that could recognize the G-CSF receptor.
9 nd the association of these enzymes with the G-CSF receptor.
10 ny-stimulating factor (G-CSF) acting via the G-CSF receptors.
11 g the granulocyte colony-stimulating factor (G-CSF) receptor.
12 f the granulocyte colony-stimulating factor (G-CSF) receptor.
13 f the Granulocyte-Colony-Stimulating Factor (G-CSF) receptor activates non-receptor protein tyrosine
14 ural differences suggested that the IL-3 and G-CSF receptor agonist domains within the MPO chimera ma
15  IL-3 receptor agonists linked with a common G-CSF receptor agonist have been examined for their IL-3
16 sequences to engineer chimeric dual IL-3 and G-CSF receptor agonists in which the relative spatial or
17 ) and granulocyte colony-stimulating factor (G-CSF) receptor agonists that are superior in comparison
18 r and granulocyte colony-stimulating factor (G-CSF) receptor agonists.
19 ic mice carrying targeted mutations of their G-CSF receptor and displaying markedly different G-CSF-i
20 pheral sympathetic nerve neurons express the G-CSF receptor and ex vivo stimulation of peripheral sym
21             Oval cells were found to express G-CSF receptor and G-CSF was produced within the regener
22 aling, the data support the concept that the G-CSF receptor and gp130 are both structurally and funct
23 all of the G-CSF-expressing lines lacked the G-CSF receptor and injections of purified recombinant G-
24 w that resident spinal microglia express the G-CSF receptor and that G-CSF signaling mediates microgl
25      Since bone marrow myeloid cells express G-CSF receptors and G-CSF rapidly reduces CXCR4 expressi
26 e cell lines were transfected with the human G-CSF receptor, and stable transfectants were studied.
27 , the granulocyte colony-stimulating factor (G-CSF) receptor, and the granulocyte-macrophage colony-s
28 (Mpl, granulocyte-colony-stimulating factor [G-CSF] receptor, and Flt-3) were inserted into mouse pri
29                  Truncating mutations of the G-CSF receptor are found during disease course in nearly
30 that two distinct cytoplasmic regions of the G-CSF receptor are involved in the regulation of the int
31  the membrane-proximal 55 amino acids of the G-CSF receptor are sufficient for activation of Stat5, t
32   Truncation of the carboxyl terminus of the G-CSF receptor, as seen in patients with acute myeloid l
33 (MCP-1), matrix metalloproteinase 9 (MMP-9), G-CSF receptor, beta2 integrins, or selectins responded
34                                 Importantly, G-CSF receptor blockade did not adversely affect viral c
35 we describe for the first time the effect of G-CSF receptor blockade in a therapeutic model of inflam
36 animals neutropenic, suggesting an effect of G-CSF receptor blockade on neutrophil homing to inflamma
37 in Shp2-deficient cells transfected with the G-CSF receptor but intact in cells expressing phosphatas
38 io of STAT1:STAT3:STAT5 activated by various G-CSF receptor C-terminal deletion mutants.
39 n the receptor by nearly 15 degrees C in the G-CSF/receptor complex.
40 mutations in the extracellular domain of the G-CSF receptor (CSF3R) have been reported only in severe
41  The membrane-proximal 55 amino acids of the G-CSF receptor cytoplasmic domain are sufficient for med
42                                              G-CSF receptor deficiency and CXCL1 blockade suppressed
43 but not flt-3 ligand is markedly impaired in G-CSF receptor-deficient (G-CSFR-deficient) mice.
44                                   G-CSF- and G-CSF receptor-deficient mice are profoundly protected i
45 or and IL-6 or by retroviral transduction of G-CSF receptors, demonstrating that loss of both of thes
46 hanism by which the carboxyl terminus of the G-CSF receptor down-regulates G-CSF-induced Stat activat
47 at Lyn-deficient DT40 cells that express the G-CSF receptor (DT40GR) do not demonstrate G-CSF-induced
48 t activation mediated by a carboxy truncated G-CSF receptor, expressed in patients with acute myeloid
49  correlate with the reduction in bone marrow G-CSF receptor expression.
50  to liver repopulation, as well as the G-CSF/G-CSF-receptor expression levels were evaluated.
51 emia (AML) associated with a mutation of the G-CSF receptor (G-CSF-R) developed in a patient with SCN
52                                          The G-CSF receptor (G-CSFR) activates the Jak/STAT pathway,
53                  Truncation mutations of the G-CSF receptor (G-CSFR) are associated with the developm
54  the membrane-proximal 87 amino acids of the G-CSF receptor (G-CSFR) are sufficient to mediate this r
55                                          The G-CSF receptor (G-CSFR) belongs to the superfamily of th
56 ns that truncate the cytoplasmic tail of the G-CSF receptor (G-CSFR) have been detected.
57                             Mutations in the G-CSF receptor (G-CSFR) in patients with severe congenit
58  in the expression of truncated forms of the G-CSF receptor (G-CSFR) protein.
59 CD11b(+) myeloid cells, is known to regulate G-CSF receptor (G-CSFR) signaling, we hypothesized that
60 y, we describe a system to study the role of G-CSF receptor (G-CSFR) signals in granulocytic differen
61 rated mice with a targeted mutation of their G-CSF receptor (G-CSFR) such that the cytoplasmic (signa
62 cation mutations of CSF3R, which encodes the G-CSF receptor (G-CSFR), are implicated in leukemic prog
63                                 We use mixed G-CSF receptor (G-CSFR)-deficient bone marrow chimeras t
64                                      Because G-CSF receptor (G-CSFR)-deficient mice do not have the e
65 n progenitor mobilization was examined using G-CSF receptor (G-CSFR)-deficient mice.
66 a is known to be marked by expression of the G-CSF receptor (G-CSFR).
67  human fibrosarcoma cell line expressing the G-CSF receptor, G-CSF induces the tyrosine phosphorylati
68 onstrate elevated risk with mutations in the G-CSF receptor gene and a specific mutation in the ELANE
69           SCN patients with mutations in the G-CSF receptor gene are predisposed to acute myeloid leu
70 N) has been shown to harbor mutations in the G-CSF receptor gene that resulted in the truncation of t
71 , and granulocyte colony-stimulating factor (G-CSF) receptor genes by 2.5-, 1.8-, and 1.6-fold, respe
72            Because patients with a truncated G-CSF receptor have a high risk of developing acute myel
73 ctivated by G-CSF in cells expressing the wt G-CSF receptor, in addition to the previously reported S
74 dy used a retroviral vector to transduce the G-CSF receptor into MO7e cells, which are known to expre
75                               The transduced G-CSF receptor is functionally active, and the resultant
76                                 However, the G-CSF receptor is not expressed on osteoblasts; accordin
77 emonstrate that the carboxyl terminus of the G-CSF receptor is required for SHP-1 down-regulation of
78   The granulocyte colony-stimulating factor (G-CSF) receptor is expressed exclusively in myeloid cell
79  model of hematopoietic deficiency, T(-) and G-CSF-receptor knock-out (GR(-)) mice were crossed, and
80 ing a granulocyte-colony stimulating factor (G-CSF) receptor knockout mouse model in combination with
81 w cells of wild-type mice, activation of the G-CSF receptor leads to upregulation of cyclin D3.
82 omains, domains with the L1 linker had lower G-CSF receptor-mediated proliferative activities and con
83  for functional importance and redundancy of G-CSF receptor-mediated signaling in human granulopoiesi
84        To investigate the role Gab2 plays in G-CSF receptor-mediated signaling, we have analyzed its
85      This phenotype is distinct from that of G-CSF receptor-/- mice, suggesting that other genes are
86                                  Bone marrow G-CSF receptor mRNA levels and G-CSF-stimulated prolifer
87 ion was associated with the up-regulation of G-CSF receptor mRNA, and the combination of GM-CSF and G
88  that granulocyte colony-stimulating factor (G-CSF) receptor mRNA was undetectable and granulocyte ma
89 ion of the myeloperoxidase, lactoferrin, and G-CSF receptor mRNAs.
90 g the granulocyte-colony-stimulating factor (G-CSF) receptor, neutrophil elastase, and myeloperoxidas
91 olecules that bind and activate the IL-3 and G-CSF receptors on hematopoietic cells.
92  This may reflect the presence of functional G-CSF receptors on other cell types and tissues, as well
93 ells stably expressing either wild-type (wt) G-CSF receptor or a series of C-terminal deletion mutant
94                                              G-CSF receptor positive (aka G-CSFr(+) or CD114(+)) cell
95               Cells expressing the truncated G-CSF receptor produced more ROSs than those with the fu
96 lso found two regions that are important for G-CSF receptor promoter activity.
97                   A 1,391-bp fragment of the G-CSF receptor promoter is both active in myeloid cell l
98 e other functionally important region of the G-CSF receptor promoter is in the 5' untranslated region
99                                         Anti-G-CSF receptor rapidly halted the progression of establi
100 hap30 repressed expression of the endogenous G-CSF receptor several-fold.
101 er investigate the actions of blocking G-CSF/G-CSF receptor signaling in inflammatory disease, and as
102 nulopoiesis-specific mechanism downstream of G-CSF receptor signaling that leads to LEF-1 downregulat
103 d thereby inhibits STAT3 phosphorylation and G-CSF receptor signaling.
104 intact STAT3 upregulation, characteristic of G-CSF receptor signaling.
105 nd correlated that with wild-type and mutant G-CSF receptors stably expressed in the murine factor-de
106 atterns by Gr-1 antigen expression and their G-CSF receptor status.
107 e, blocking neutrophil trafficking with anti-G-CSF receptor suppressed local production of proinflamm
108 genic mice with a targeted mutation of their G-CSF receptor (termed d715F) that abolishes G-CSF-depen
109 rom an inflammatory phenotype following anti-G-CSF receptor therapy in collagen Ab-induced arthritis.
110                        We show here that the G-CSF receptor transcription start site is identical in
111                             We established a G-CSF receptor-transduced promyelocytic cell line, EPRO-
112                                          The G-CSF receptor transduces signals that regulate the prol
113 ls in the blood and arthritic joints of anti-G-CSF receptor-treated mice showed alterations in cell a
114 le in granulocyte colony-stimulating factor (G-CSF) receptor-triggered granulopoiesis, is downregulat
115       The extracellular domain of the murine G-CSF receptor was required for the activity of SB 24746
116 Dcl3 cells and FDCP1 cells expressing mutant G-CSF receptors was examined and it was found that G-CSF
117 s; instead, mutations of CSF3R, encoding the G-CSF receptor, were common.
118 e developed a neutralizing mAb to the murine G-CSF receptor, which potently antagonizes binding of mu
119 s expressing a carboxyl-terminally truncated G-CSF receptor, which supports proliferation but not dif
120 kinetics, the MPOs were found to bind to the G-CSF receptor with low nanomolar affinities, similar to

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