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1 SC enriched for effector genes (Gzmb, Klrg1, Cx3cr1).
2 ns is dependent on the fractalkine receptor (CX3CR1).
3 acks expression of the fractalkine receptor (CX3CR1).
4 nds to the corresponding chemokine receptor, CX3CR1.
5 g and is independent of its interaction with CX3CR1.
6 omeruli using beta2 and alpha4 integrins and CX3CR1.
7  is significantly improved in the absence of CX3CR1.
8 ractalkine (CX3CL1), an endogenous ligand of CX3CR1.
9 r macrophages express the chemokine receptor CX3CR1.
10  upon expression of the fractalkine receptor CX3CR1.
11 ave increased expression of CCR1, CXCR3, and CX3CR1.
12 mmatory OCLs (i-OCLs), part of which express Cx3cr1.
13 teractions with the human chemokine receptor CX3CR1.
14  AGM was dependent on the chemokine receptor Cx3cr1.
15 ated CNS-myeloid exhibited downregulation of Cx3cr1.
16 naling function through binding its receptor CX3CR1.
17 10R, CD206, and CCR2 but little TNF-alpha or CX3CR1.
18  myeloid cells expressing HLA-DR, CD11c, and CX3CR1.
19                                              CX3CR1, a cell surface marker whose expression is associ
20                    Deletion of one allele of CX3CR1, a chemokine receptor, limited infiltration of pe
21           Together, these data indicate that CX3CR1, a microglia-specific chemokine receptor, is a no
22 Published data show that genetic deletion of CX3CR1, a microglia-specific chemokine receptor, promote
23                                Modulation of CX3CR1 activation in septic mice controlled monocyte adh
24 1 signalling and suggest that an increase of CX3CR1 activity contributes to the attenuated inflammato
25 ch that the number of lesions decreased when CX3CR1 activity increased.
26 tosis mice) and genetic ablation of CCR2 and CX3CR1 all inhibited LLC1 tumor growth and metastasis, s
27 nt with these results, the pro-adhesive I249 CX3CR1 allele in humans was associated with a lower inci
28 in signaling suppressor DKK1, or knockout of CX3CR1 alleviated gp120-induced mechanical allodynia in
29  are orchestrated by the chemokine receptors CX3CR1 and CCR2 and their cognate ligands.
30 ower levels of F4/80 and chemokine receptors CX3CR1 and CCR2 in the F4/80(+) renal resident macrophag
31 ry, microglial activation, and signaling via CX3CR1 and CCR2 receptors, or following direct TLR2 stim
32  vision loss at P31 (B2m, Tlr 2, 3, 4, C1qa, Cx3cr1 and Fas).
33 ess the vascular endothelium-homing receptor CX3CR1 and migrate toward CX3CL1-expressing endothelial
34 ted the expression of the chemokine receptor CX3CR1 and the integrin alpha4beta7 on CD8 T cells prime
35 ases, we found a significant upregulation of CX3CR1 and TMEM119 mRNA expression and a downregulation
36  are associated with the expression level of CX3CR1 and TNFAIP1, and affect the transcription factor
37 retina nor pigmentation, although peripheral CX3CR1(+) and CCR2(+) monocytes infiltrate the optic ner
38                               We showed that Cx3cr1(+) and Cx3cr1(neg) i-OCLs differ considerably in
39 e, we investigated the contribution of mouse Cx3cr1(+) and Cx3cr1(neg) i-OCLs to bone loss.
40 and their corresponding Teff precursors were CX3CR1(-) and CX3CR1(high), respectively.
41    Finally, inhibition of ADAM10 phenocopies Cx3cr1(-/-) and Cx3cl1(-/-) synapse elimination defects.
42 and expressed markers of endothelial homing (CX3CR1) and cytotoxicity (NKG2D and perforin).
43  in the promoters of 4 genes, NLRC5, TRIM69, CX3CR1, and BCL9, in the discovery sample and in meta-an
44 t migration to inflamed sites, such as CCR2, CX3CR1, and CCR5, in TPH cells.
45  cell-associated genes, including CD1, FLT3, CX3CR1, and CCR6 Each clade, and each member of both cla
46 hese cells expressed monocytic markers Ly6C, CX3CR1, and CD115, suggesting monocytic origin.
47 s at P22, including beta-2 microglobulin and Cx3cr1, and during vision loss at P31 (B2m, Tlr 2, 3, 4,
48  phenotypic markers, including CD11b, IBA-1, CX3CR1, and P2RY12, and phagocytosed micron-size super-p
49                Among them, ITGAV, FoxC1, and CX3CR1 are significantly enriched in patients with 2 or
50 le depletion of resident macrophages using a Cx3cr1-based system led to impaired cardiac function and
51   Lack or low levels of expression of CX3CL1-CX3CR1 by tumor cells identifies a group of CRC patients
52 emia-reperfusion triggered marked unilateral CX3CR1-CCR2 dependent accumulation of diverse leukocyte
53 2 stimulation, in both models, disruption of CX3CR1-CCR2 signaling attenuated both monocyte and neutr
54 ting myeloid cells with intact and disrupted CX3CR1-CCR2 signaling could identify novel therapeutic t
55                                    Disrupted CX3CR1-CCR2 signaling was neuroprotective in part by att
56 eability, injury, microglial activation, and CX3CR1-CCR2 signaling, focusing on the dynamics early af
57                               We report that CX3CR1-CCR2-mediated myeloid cell recruitment contribute
58 gand 1 (PD1-L1), CxxxC chemokine receptor 1 (Cx3CR1), CCR7, and CCR9.
59 tly increased the expression levels of iNOS, CX3CR1, CD206, phospho-STAT1 and phospho-STAT3 proteins
60 displayed high ex vivo levels of granzyme B, CX3CR1, CD38, or HLA-DR but less often coexpressed CD38(
61 T recipients and is particularly elevated on CX3CR1(+) CD8(+) T cells, suggesting that these cells co
62  These data showed that the rapidly deployed CX3CR1(+) cell-based mechanism of immune exclusion is a
63 Salmonella Typhimurium infection, intestinal CX3CR1(+) cells can either extend transepithelial cellul
64 antly reduced after the adoptive transfer of CX3CR1(+) cells directly into the intestinal lumen, cons
65 antly reduced after the adoptive transfer of CX3CR1(+) cells directly into the intestinal lumen, cons
66 g real-time in vivo imaging we observed that CX3CR1(+) cells migrated into the lumen moving through p
67 testinal lumen, consistent with intraluminal CX3CR1(+) cells preventing S.
68 testinal lumen, consistent with intraluminal CX3CR1(+) cells preventing S. Typhimurium from infecting
69 l relevance of the intraluminal migration of CX3CR1(+) cells remained to be determined.
70 conclusion, tumoral expression of the CX3CL1-CX3CR1 chemokine axis functions as a retention factor, i
71                             However, whether CX3CR1 confers protection against mucosal C. albicans in
72                         Since RSV binding to CX3CR1 contributes to disease pathogenesis, we investiga
73                               RSV binding to CX3CR1 contributes to disease pathogenesis; therefore, w
74      The chemokine receptors CCR2, CCR5, and CX3CR1 coordinate monocyte trafficking in homeostatic an
75                           High expression of CX3CR1 correlates with significantly shorter survival, s
76       Interventions that specifically target CX3CR1 could reduce the adverse effects of inflammation
77 ly in microglia (Cx3cr1(CreER);Mecp2(fl/y)or Cx3cr1(Cr)(eER); Mecp2(LSL/y)) had little effect on exce
78 g Raptor loxed (Raptor(flox/flox)) mice with CX3CR1(CreER) mice, which express Cre recombinase under
79  Mecp2 expression specifically in microglia (Cx3cr1(CreER);Mecp2(fl/y)or Cx3cr1(Cr)(eER); Mecp2(LSL/y
80 deletion of TSPO in resident microglia using Cx3cr1(CreERT2):TSPO(fl/fl) mice or targeting the protei
81 e tracing studies-labelling cells expressing Cx3cr1, Csf1r or Flt3-to identify the precursors of oste
82 f resident arterial macrophages depends on a CX3CR1-CX3CL1 axis within the vascular niche.
83 inoma) caused up-regulation of CCR2/CCL2 and CX3CR1/CX3CL1 in both the cancer cells and the MPhi.
84 s rapidly differentiate into BMRMs, with the CX3CR1/CX3CL1 signaling axis being essential for the mai
85 ophage phagocytosis function was impaired by CX3CR1 deficiency as demonstrated by increased number of
86 ntry into the lung parenchyma by half, while CX3CR1 deficiency doubles it.
87 sually causes fibrosis, we hypothesized that CX3CR1 deficiency should attenuate renal fibrosis.
88 r and subset composition were not altered by CX3CR1 deficiency.
89 hat in the presence of inflammatory stimuli, CX3CR1-deficient (CX3CR1(-/-)) microglia and macrophages
90 IGF-1 (-53%), and IL-6 (-40%) was reduced in CX3CR1-deficient macrophages as compared with WT control
91           Stable patrolling is unaffected in CX3CR1-deficient mice and involves the contribution of L
92                We have previously shown that Cx3cr1-deficient mice develop age- and stress- related s
93                                              CX3CR1-deficient mice exhibited significantly lower expr
94                  In this study, we show that CX3CR1-deficient mice fail to resolve gut inflammation d
95 ng and flow cytometry revealed in kidneys of CX3CR1-deficient mice more motile Ly6C/Gr-1(+) macrophag
96 ble for increased photoreceptor apoptosis in Cx3cr1-deficient mice, has not been elucidated.
97                                  However, in CX3CR1-deficient mice, the clearance of myelin debris by
98  concomitantly with reduced contacts between Cx3cr1-deficient microglia and abGCs' dendritic shafts,
99                            Here we show that Cx3cr1-deficient MPs express increased surface P2X7 rece
100                                              Cx3cr1-deficient MPs have been shown to increase neurona
101 reason for increased IL-1beta secretion from Cx3cr1-deficient MPs, and whether IL-1beta is responsibl
102 Data in the current manuscript indicate that CX3CR1 deletion changes microglia and macrophage functio
103 ey reside through CX3C-chemokine receptor 1 (CX3CR1)-dependent adherence.
104 have a protective effect during sepsis via a CX3CR1-dependent adhesion mechanism.
105  this monocyte deployment is controlled by a CX3CR1-dependent balance between marginating and circula
106          Here, we tested the hypothesis that CX3CR1-dependent changes in microglia and macrophage fun
107 results provide an explanation for increased CX3CR1-dependent IL-1beta secretion and suggest that IL-
108  renal vascular wall in a chemokine receptor CX3CR1-dependent manner.
109                             Indeed, limiting CX3CR1-dependent signaling could improve rehabilitation
110 ocyte-enriched bone marrow cells into septic Cx3cr1-depleted mice prevented kidney damage and promote
111                                              Cx3cr1-driven deletion of Nrros shows its crucial role i
112 e mice, CX3CR1(gfp/gfp), CX3CR1(gpf/wt), and CX3CR1-DTR-EYFP.
113                 To investigate the impact of CX3CR1 elevation in vivo, we compared LPS-induced inflam
114 ighly polarized, with a strong bias toward a CX3CR1(+) Eomesodermin(+) perforin(+) granzyme B(+) CD45
115 y reduced numbers of nonclassical monocytes (CX3CR1(-/-)) exhibited a significant reduction in neutro
116              Inducible ablation of IL-1R1 in CX3CR1-expressing cells eliminated cognitive impairment
117 ytometry demonstrated a 4.5-fold increase in CX3CR1-expressing immune cells (p <= 0.0001), including
118  to liver was dramatically reduced in CX3CL1-CX3CR1-expressing tumors, and ligand-receptor interactio
119 ages were observed that differed in terms of CX3CR1 expression and migratory capacity.
120                                      Lack of Cx3cr1 expression was associated with significantly alte
121 5 promotes the cytotoxic phenotype, elevates CX3CR1 expression, and enhances the trafficking of CD57(
122             In correlation with the enhanced CX3CR1 expression, Lrrk2-null microglia migrated faster
123 ciency diminishes CX3C chemokine receptor 1 (CX3CR1) expression and vascular endothelial growth facto
124 ess the vascular endothelium-homing receptor CX3CR1 (fractalkine receptor) are enriched in HIV-infect
125 enic mice expressing single mutations in the Cx3cr1, GDNF and CCR2 genes.
126                                              CX3CR1 gene deletion or anti-Abeta immunotherapy causes
127 oded macrophages (Ccr2 (RFP)) and microglia (Cx3cr1 (GFP)).
128                                    Apoe(-/-) Cx3cr1(GFP) Cd11c(YFP) mice have 4 groups of macrophages
129      Intrascrotal administration of Gal-3 to CX3CR1(gfp/+) mice confirmed that approximately equal nu
130 tion of wild-type (C57BL/6), Gal-3(-/-), and CX3CR1(gfp/+) mice were assessed by intravital microscop
131  gondii infection of C57BL/6J and CCR2(RFP/+)CX3CR1(GFP/+) mice.
132 s, depletion of microglia before tMCAO in P9 Cx3cr1(GFP/+)/Ccr2(RFP/+) mice exacerbated injury and in
133          Muscle injury repair was delayed in CX3CR1(GFP/GFP) mice as compared with wild-type (WT) con
134 gocytosed beads within macrophages (-15%) in CX3CR1(GFP/GFP) mice as compared with WT controls.
135 al fecal load in CX3CR1(+/gfp) compared with CX3CR1(gfp/gfp) mice following oral infection.
136 nd mouse MPs in vitro and inflammation-prone Cx3cr1(GFP/GFP) mice in vivo, we demonstrate that MP-der
137  CD11c-EYFP, CD11c-EYFP-DTR, germ-free mice, CX3CR1(gfp/gfp), CX3CR1(gpf/wt), and CX3CR1-DTR-EYFP.
138 261-induced mouse models in combination with CX3CR1(GFP/WT);CCR2(RFP/WT) double knock-in mice.
139 upported by a higher bacterial fecal load in CX3CR1(+/gfp) compared with CX3CR1(gfp/gfp) mice followi
140                A similar increase is seen in CX3CR1(+/GFP)/apoE(-/-) mice on chow diet, with a furthe
141 scopy of unrestrained large arteries in live CX3CR1-GFP (green fluorescent protein) mice, we show tha
142 icroscopy in ex vivo spinal cord slices from CX3CR1-GFP mice complemented with confocal analyses of C
143 exes) that allow visualization of microglia (CX3CR1-GFP) and infiltrating peripheral myeloid cells (C
144 c-EYFP-DTR, germ-free mice, CX3CR1(gfp/gfp), CX3CR1(gpf/wt), and CX3CR1-DTR-EYFP.
145 lly matured NK cells with high expression of CX3CR1, HAVCR2 (TIM-3), and ZEB2 represents terminally d
146 he striatum of Lrrk2(-/-) knockout mice with Cx3cr1 heterozygous and homozygous knockout background.
147 nfection, CXCR3(hi) CX3CR1(lo) and CXCR3(lo) CX3CR1(hi) CD8 T cells localize to different compartment
148  changes of Ly6C(pos)CX3CR1(lo) and Ly6C(neg)CX3CR1(hi) macrophage populations during skeletal muscle
149 mmune suppressive function of the regulatory CX3CR1(hi) macrophages (Mvarphi), which express the high
150 t cells and increased phagocytosis of OVA by CX3CR1(hi) macrophages.
151                                              CX3CR1(hi) monocyte/macrophages promote P. gingivalis su
152 ally, TRPV1(-/-) or CB2(-/-) mice have fewer CX3CR1(hi) Mvarphi in the gut.
153  T cells acquired an effector-like CXCR3(lo) CX3CR1(hi) phenotype in the absence of B cells.
154 cruitment and differentiation to Ly6C(hi) vs CX3CR1(hi) subsets, respectively.
155 ssical, patrolling, or alternative (CCR2(low)CX3CR1(hi)) monocytes.
156 tioned to CX3CR1(Hi)CCR2(Lo) macrophages and CX3CR1(Hi)CCR2(-) microglia-like cells.
157 uited to the GBM, where they transitioned to CX3CR1(Hi)CCR2(Lo) macrophages and CX3CR1(Hi)CCR2(-) mic
158 tioned, in situ, from CCR2(hi)Cx3CR1(low) to CX3CR1(hi)CCR2(low) within the ringlike structure and th
159        Taken together, our results highlight CX3CR1(high) monocytes and TNF-alpha as potential therap
160      RATIONALE: Nonclassical mouse monocyte (CX3CR1(high), Ly-6C(low)) patrolling along the vessels o
161 esponding Teff precursors were CX3CR1(-) and CX3CR1(high), respectively.
162                   Furthermore, activation of CX3CR1(high)Ly6C(low) monocytes impaired motor learning
163                                     Although Cx3cr1(+) i-OCLs are associated with inflammation, they
164   Here, we found that the chemokine receptor CX3CR1 identifies three distinct CD8(+) Teff and Tmem su
165 pp65; MDSC depletion further augmented CD4(+)CX3CR1(+)IFNgamma(+) cells and IFNgamma production.
166 CMV(+) controls exhibit an increase in CD4(+)CX3CR1(+)IFNgamma(+) cells in response to CMVpp65; MDSC
167                       CMVpp65 specific CD4(+)CX3CR1(+)IFNgamma(+) cells were also decreased in presen
168         We showed an increased expression of CX3CR1 in all monocyte subpopulations and of CCR2 and CC
169         Our results demonstrate that loss of Cx3cr1 in CNS-myeloid triggers a Cxcl10-mediated vicious
170                   Transduction of CX3CL1 and CX3CR1 in CRC tumor cell lines induced cell aggregation
171 protein (GFAP), and the fractalkine receptor CX3CR1 in DRGs.
172 establish an essential role for the receptor CX3CR1 in gut macrophages in resolving inflammation in t
173 a, CCL20, and CCL8, and higher expression of CX3CR1 in monocytes from old subjects.
174 results highlight the crucial role played by CX3CR1 in myelin removal and show that there can be no e
175                       We studied the role of CX3CR1 in regulating intramuscular macrophage number and
176 x3cl1) and chemokine receptors (Ccr6, Cxcr6, Cx3cr1) in livers of Tnfr1(-/-)/Mdr2(-/-) mice indicated
177 support a role for the fractalkine receptor (CX3CR1) in the initiation of peritoneal adhesion importa
178 ered that a defect in the chemokine receptor CX3CR1 increases susceptibility of mice and humans to sy
179 d in hyperlipidemia and atherosclerosis in a CX3CR1-independent fashion and plays a potential role in
180 at responds to G-CSF by engaging Cathepsin S-CX3CR1-inducible NOS signaling.
181                                        Thus, CX3CR1 inhibition should be avoided in DC-independent in
182                                 Both Tcm and CX3CR1(int) cells homed to lymph nodes, but CX3CR1(int)
183  CX3CR1(int) cells homed to lymph nodes, but CX3CR1(int) cells, and not Tem cells, predominantly surv
184  infection also induced a numerically stable CX3CR1(int) subset that represented approximately 15% of
185                                           As CX3CR1(int) Tmem cells present unique phenotypic, homeos
186                                              CX3CR1(int) Tmem cells underwent more frequent homeostat
187  that neuron-to-microglial communication via CX3CR1 is an essential component of visual cortical deve
188          Intravital microscopy revealed that CX3CR1 is critical for Ly6Clo monocyte transmigration ac
189 ng two different mouse models, we found that Cx3cr1 is dispensable for the induction of interleukin 1
190                             We conclude that CX3CR1 is important to acute skeletal muscle injury repa
191 own that the microglial fractalkine receptor CX3CR1 is involved in synaptic development and hippocamp
192 t signaling through the fractalkine receptor CX3CR1 is not an essential component in the mechanisms o
193     Taken together, these data indicate that CX3CR1 is not essential for protection of the host again
194                           Our data show that CX3CR1 is not required for normal development of V1 resp
195 a and suppress M. tuberculosis growth, while CX3CR1(+) KLRG1(+) Th1 cells accumulate in the lung vasc
196                                              Cx3cr1 knockout in CNS-myeloid increased br-met incidenc
197 10 knockout mice parabiosed with miR-210 WT; Cx3cr1 knockout mice (deficient in myeloid recruitment)
198                                       Female Cx3cr1 knockout mice develop 'male-like' hypothalamic mi
199                                 Furthermore, CX3CR1 knockout mice resist bone resorption in the oral
200 n of gastric monocyte infiltration using the Cx3cr1 knockout mouse model prevented SPEM development.
201 ale mice fed a high-fat diet maintain CX3CL1-CX3CR1 levels while male mice show reductions in both li
202 ing a respiratory virus infection, CXCR3(hi) CX3CR1(lo) and CXCR3(lo) CX3CR1(hi) CD8 T cells localize
203 dscape of transcriptomic changes of Ly6C(pos)CX3CR1(lo) and Ly6C(neg)CX3CR1(hi) macrophage population
204 ly GR1(+), Ly6c(hi), CCR2(hi), CCL2(hi), and CX3CR1(lo) In addition, expression of F4/80 and the recr
205    Using this approach, we demonstrated that CX3CR1(Lo)CCR2(Hi) monocytes were recruited to the GBM,
206                 We observed that the CCR2(hi)CX3CR1(low) monocytes were recruited early and persisted
207 onocytes transitioned, in situ, from CCR2(hi)Cx3CR1(low) to CX3CR1(hi)CCR2(low) within the ringlike s
208 cytes: classical or proinflammatory (CCR2(hi)CX3CR1(low)) and nonclassical, patrolling, or alternativ
209 flammatory (CCR2(+)Ly6C(hi)) and patrolling (CX3CR1(+)Ly6C(lo)) monocytes into the blood and brain du
210 naling blockade, resulting in recruitment of CX3CR1+Ly6Clo monocytes into the tumor.
211 +) T cells clustered with CD4(+) T cells and CX3CR1(+) macrophages and/or dendritic cells around area
212 e intestines in steady-state that intestinal CX3CR1(+) macrophages form an interdigitated network int
213  the accumulation of CD11b(+)F4/80(hi)CD64(+)CX3CR1(+) macrophages in the gastric lamina propria.
214                                              CX3CR1(+) macrophages in the intestinal lamina propria c
215 similar regional accumulation of CCR2(+) and CX3CR1(+) macrophages, and provided functional rejuvenat
216 ut reside and are activated in apposition to CX3CR1(+) macrophages.
217 mporal and regional induction of CCR2(+) and CX3CR1(+) macrophages.
218 ic fatty liver disease, we hypothesized that CX3CR1 may influence the development of steatohepatitis.
219 he therapeutic strategy of blocking CCR2 and CX3CR1 may prove beneficial for halting lung cancer prog
220 hus suggest that, under chronic pain states, CX3CR1-mediated activation of microglia drives the facil
221 murium strain that specifically targeted the CX3CR1-mediated entry route.
222 murium strain that specifically targeted the CX3CR1-mediated entry route.
223 ains differing in their ability to carry out CX3CR1-mediated sampling and intraluminal migration.
224        Also, we reported that the absence of CX3CR1-mediated sampling did not affect Ab responses to
225        Also, we reported that the absence of CX3CR1-mediated sampling did not affect Ab responses to
226 V/CMV coinfection and in atherosclerosis via CX3CR1-mediated trafficking and CD2/LFA-3-mediated costi
227                                        AngII/Cx3cr1(-/-) mice also showed an M1 phenotypic shift rela
228                   Cohousing of wild-type and CX3CR1(-/-) mice during the AOM/DSS treatment attenuated
229 t, in sampling-deficient/migration-deficient CX3CR1(-/-) mice the numbers of S.
230 t, in sampling-deficient/migration-deficient CX3CR1(-/-) mice the numbers of S. Typhimurium penetrati
231                                              Cx3cr1(-/-) mice were used to inhibit nonclassical macro
232 argeted key pathways in Ly6C(low) monocytes (Cx3cr1(-/-) mice), Ly6C(high) monocytes (CCR2(-/-) mice)
233                                           In Cx3cr1(-/-) mice, abGCs exhibited reduced spine density,
234 DSS treatment attenuated disease severity in CX3CR1(-/-) mice, indicating the importance of the micro
235  communication in CX3C receptor-1 deficient (Cx3cr1(-/-)) mice.
236 atory macrophages in liver were increased in Cx3cr1-/- mice, indicating an increased inflammatory res
237 l cord, inflammatory signaling is reduced in CX3CR1(-/-) microglia.
238 pinal cord), the microenvironment created by CX3CR1(-/-) microglia/macrophages enhances NG2 cell resp
239 e of inflammatory stimuli, CX3CR1-deficient (CX3CR1(-/-)) microglia and macrophages adopt a reparativ
240       Interventions that specifically target CX3CR1 might be used in the future to reduce the adverse
241 AC(187)), which is known to block binding to CX3CR1, might decrease disease.
242 (182)CWAIAC(187)), known to block binding to CX3CR1, might decrease disease.
243 and impaired memory formation is mediated by CX3CR1(+) monocyte-derived TNF-alpha.
244          Rather, frequencies of infiltrating CX3CR1(+) monocytes increased over time in livers of Tnf
245 used enhanced infiltration of TH17 cells and CX3CR1(+) monocytes into the injured tissue, which was a
246 d abnormal engraftment of peripheral CCR2(+) CX3CR1(+) monocytes into the retina, which is associated
247                              Infiltration of CX3CR1+ monocytes to the peri-infarct zone after MI was
248                    Here we show that colonic CX3CR1(+) mononuclear phagocytes are critical inducers o
249            We found that recruited Dock8(-/-)CX3CR1(+) mononuclear phagocytes are exquisitely sensiti
250 esponses mediated by CD11b(+)F4/80(hi)CD64(+)CX3CR1(+) mononuclear phagocytes that contribute to main
251 e-genome microarray screening, we found that Cx3cr1 mRNA levels were substantially higher in microgli
252 ored in neonate mice overexpressing IL-23 in CX3CR1(+) myeloid cells or in keratinocytes.
253                 We showed that Cx3cr1(+) and Cx3cr1(neg) i-OCLs differ considerably in transcriptiona
254                                              Cx3cr1(neg) i-OCLs have a high ability to resorb bone an
255 ated the contribution of mouse Cx3cr1(+) and Cx3cr1(neg) i-OCLs to bone loss.
256 ave in vitro an immune-suppressive effect on Cx3cr1(neg) i-OCLs, mediated by PD-L1.
257 antly lower expression of chemokine receptor CX3CR1 on CD56(bright) NK cells and inhibitory receptor
258                                     Blocking CX3CR1 or nitric oxide production during G-CSF treatment
259 y to recruit inflammatory Ly6Chi (Ccr2-/- or Cx3cr1-/-) or patrolling Ly6Clo (Ccr5-/-) monocytes.
260 ouse, including established microglial genes CX3CR1, P2RY12 and ITGAM (CD11B).
261 halamic microglial activation via the CX3CL1-CX3CR1 pathway that mediate the resistance of female mic
262             The chemokine receptors CCR2 and CX3CR1 play a major role in monocyte recruitment and dif
263     The G protein-coupled chemokine receptor CX3CR1 plays a central role in several metabolic syndrom
264  effect was associated with lower F4/80- and CX3CR1-positive macrophage infiltration into the liver i
265 rterial macrophages arise embryonically from CX3CR1(+) precursors and postnatally from bone marrow-de
266               Chemokine (C-X3-C) receptor 1 (CX3CR1), predominantly expressed by microglia, suppresse
267 cluding expression of the chemokine receptor CX3CR1, pro-inflammatory cytokines, and granzyme B.
268                         Adoptive transfer of Cx3cr1-proficient monocyte-enriched bone marrow cells in
269  numbers of T-regulatory cells and levels of CX3CR1 protein and Il10 mRNA in intestine tissues, and r
270 tal S100-knockout mice had reduced levels of CX3CR1 protein, and Il10 and Tgfb1 mRNAs, compared with
271         The total and cell surface levels of CX3CR1 proteins were also remarkably increased.
272  with expression of the fractalkine receptor CX3CR1 (r2 = 0.99, P = 0.006).
273          Specifically, the activation of the CX3CR1 receptor by fractalkine induces the release of in
274 istically, CX3CL1-mediated engagement of the CX3CR1 receptor induced upregulation of heme-oxygenase-1
275 s little knowledge on how these cells or the CX3CR1 receptor may affect colorectal carcinogenesis.
276                           Loss of microglial CX3CR1 receptors, or the specialized extracellular matri
277 whereas plaques transplanted into Ccr2-/- or Cx3cr1-/- recipients lacked this regression signature.
278 ractalkine (CX3CL1), an activating ligand of CX3CR1, regulates organ-specific peritoneal colonization
279             We found that a complete loss of Cx3cr1 restored the responsiveness of Lrrk2(-/-) microgl
280               We show that downregulation of CX3CR1 results in reduction of metastatic burden at seve
281                                        These CX3CR1(+)SiglecF(+) transitional macrophages localized t
282 at the neuron-to-microglia intercellular FKN/CX3CR1 signaling plays a role in gp120-induced synaptic
283 viously unknown regulatory role for LRRK2 in CX3CR1 signalling and suggest that an increase of CX3CR1
284 odulation of energy homeostasis and identify CX3CR1 signalling as a potential therapeutic target for
285 newed, but also contributed to the expanding CX3CR1(-) Tcm pool.
286 ined by intermediate levels of expression of CX3CR1 that conducts tissue surveillance.
287  high expression of the fractalkine receptor CX3CR1 that has been implicated in endothelial dysfuncti
288 f DC function used markers, such as CD11c or CX3CR1, that are not unique to DCs.
289                       Impaired signaling via CX3CR1, the fractalkine receptor, promotes recovery afte
290 pse elimination is dependent on signaling by CX3CR1, the receptor for microglial fractalkine (also kn
291 nds to the corresponding chemokine receptor, CX3CR1, through a CX3C chemokine motif ((182)CWAIC(186))
292 MPhi-tumor cell system, IL-10 drove CCR2 and CX3CR1 up-regulation, whereas CCL1, granulocyte colony-s
293 ying 6 variants associated with MI including CX3CR1 V249I.
294              Higher expression of CX3CL1 and CX3CR1 was confirmed by immunohistochemistry in 100 CRC
295                                              CX3CR1 was predominantly expressed by macrophages but no
296 e chemokine CX3CL1 and its specific receptor CX3CR1 were significantly upregulated in tumors.
297           Two chemokine receptors, CXCR4 and CX3CR1, were broadly expressed, implying a potentially c
298 d by gp120, and knockout of the FKN receptor CX3CR1, which is predominantly expressed in microglia, p
299 quency, and rare variation in CCR2, CCR5, or CX3CR1 with CAD and MI.
300                                              Cx3cr1(+) yolk-sac macrophage descendants resided in the

 
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