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1 PD-L1 on tumour cells or tumour-infiltrating immune cells).
2 cells (ILC2s) represent an important type 2 immune cell.
3 ype 2 diabetes and in infiltrating activated immune cells.
4 al cytokine that is released from stimulated immune cells.
5 energic receptor (beta-AR) signaling in host immune cells.
6 ctivation of tissue-resident and circulating immune cells.
7 ded to determine the spatial distribution of immune cells.
8 actor of HIV-1 that facilitates infection in immune cells.
9 ses immune regulators that signal underlying immune cells.
10 l diseases and in regulating the function of immune cells.
11 mitosis and with the presence or absence of immune cells.
12 re with anti-leukemia functions of activated immune cells.
13 cytokines, but not with altered endocervical immune cells.
14 We found impaired actin dynamics in patient immune cells.
15 n the ocular surface epithelium and resident immune cells.
16 on, leading to entry of activated peripheral immune cells.
17 s detailing the distribution and function on immune cells.
18 hat stimulates apoptosis in several types of immune cells.
19 (hydroxy)fatty acids, is highly expressed on immune cells.
20 he encephalitogenic potential of EAE-driving immune cells.
21 aracrine fashion to regulate the function of immune cells.
22 s and differential recruitment of peritoneal immune cells.
23 ainly understood and is managed by targeting immune cells.
24 ur cells along with neighbouring stromal and immune cells.
25 els of pro-inflammatory cytokines and innate immune cells.
26 dependent on the optimal activity of innate immune cells.
27 delivery to the targeted anatomic sites and immune cells.
28 e several immunomodulatory properties within immune cells.
29 undantly produced by activated platelets and immune cells.
30 dulated the chemokine receptor repertoire of immune cells.
31 gnificantly reduces PapMV's interaction with immune cells.
32 amily of proteins widely expressed on innate immune cells.
33 ion also mediates MDSC inhibitory effects on immune cells.
34 I BL, stimulates strong responses of innate immune cells.
35 r cells, fibroblasts, endothelial cells, and immune cells.
36 oxic concentrations (1-10 mug/mL) but not in immune cells.
37 required for diverse signaling processes in immune cells.
38 oduce CXCL8, a prototypic cytokine of innate immune cells.
39 tly less PD-L1 expression in tumor cells and immune cells.
40 her cyclooxygenase-2 (COX-2) expression than immune cells.
41 morphologic changes (CT/ MR), recruitment of immune cells ((111)In-WBC SPECT), or enhanced glycolytic
42 Some studies detected infected intestinal immune cells (8-12) , other studies detected epithelial
43 regulator of the effector function of innate immune cells, a potential biomarker for therapeutic resp
45 IFN-alpha production, resulting in superior immune cell activation and increased immunotherapeutic p
46 ape with optimal stroma permeabilization and immune cell activation is able to markedly increase ther
48 enhanced reactive oxygen species production, immune cell activation, and local hepcidin expression.
49 nism by which the pericardial AT coordinates immune cell activation, granulopoiesis, and outcome afte
52 The intestinal tract is a site of intense immune cell activity that is poised to mount an effectiv
53 edication, and as these compounds may dampen immune cell activity, this factor limits the conclusions
54 amined the association of epigenetic age and immune cell aging with sleep in the Women's Health Initi
55 airway function of these subjects by driving immune cell airway infiltration, cellular remodeling, an
58 ssue cytometry: an automated quantitation of immune cells and associated spatial parameters in 3D ima
60 oles in directing the development of diverse immune cells and controlling the dynamic transcriptional
61 restricted to inducing type 1 IFN in innate immune cells and CpG-B to activating B cells to prolifer
62 ast cancers that exhibit high proportions of immune cells and elevated levels of pro-inflammatory cyt
63 t immune cells indicating that expression in immune cells and epithelia is divided among families.
64 eurologic diseases/trauma, but the effect of immune cells and factors on neurotransplantation strateg
65 e proteins prime the particle for removal by immune cells and may contribute toward infusion-related
66 ts evidence that both the metabolic state of immune cells and nutrient availability can alter immune
67 y regulatory step for cytokine production by immune cells and prove the applicability of FRET-FLIM fo
69 is orchestrated by dynamic crosstalk between immune cells and the epithelium; however, the mechanisms
70 lncRNAs in the development and activation of immune cells and their roles in immune-related diseases.
71 ed systemic inflammation, the recruitment of immune cells, and bone regeneration, resulting in delaye
72 f immunomodulatory therapeutics, engineering immune cells, and constructing immune-modulating scaffol
73 g evidence for a crosstalk among adipocytes, immune cells, and the sympathetic nervous system (SNS),
74 s also showed enhanced recruitment of innate immune cells (antitumor macrophages, natural killer cell
75 cell responses, understanding how different immune cells are affected by small-molecule inhibitors c
80 low-affinity Fcgamma receptors, expressed on immune cells, are important regulators of antibody respo
81 nophil-deficient mice identified this innate immune cell as essential for endometrial repair during C
82 os2 (-/-) mice incapable of NO-production in immune cells as microbial defence uniformly develop hypo
83 ts also had more activated yet dysfunctional immune cells as monocytes, T cells, and B cells expresse
86 Emerging evidence supports the concept that immune cells become activated and enter target organs, i
89 or (CAR) T cells have proven that engineered immune cells can serve as a powerful new class of cancer
90 r bone marrow transplantation, donor-derived immune cells can trigger life-threatening graft-versus-h
91 U/d (n = 25) of vitamin D3 were analyzed for immune cell composition by flow cytometry, Toll-like rec
94 t and increased levels of tumor-infiltrating immune cells comprised of CD11b(+) cells, monocytes, and
97 the bronchial epithelium and tissue-resident immune cells controls the tissue microenvironment and ba
98 assays, hRETNTg(+)Tlr4(-/-) mice, and human immune cell culture, we demonstrate that hRetn binds the
104 ssue adaptation is an intrinsic component of immune cell development, influencing both resistance to
105 l-like receptor signaling in medaka enhanced immune cell dynamics and promoted neovascularization, ne
106 pport a theory of transcriptionally mediated immune cell dysregulation in CFS and ADCLS, at least out
108 ression of markers of cytotoxic infiltrating immune cells, especially CD8(+) T cells, and increased e
109 ibitory receptors have been connected to the immune cell exhaustion phenotype; furthermore, ligands c
114 concentration, recovery and purity of airway immune cells from a large volume of diluent, which was n
117 e brain ISF, CSF, CNS-derived molecules, and immune cells from the CNS and meninges to the peripheral
118 een implicated in cellular growth/apoptosis, immune cell function and bone-resorbing osteoclast forma
119 I3Kdelta plays an important role controlling immune cell function and has therefore been identified a
120 observed enhanced pathology was mediated by immune cell function independent of mesenchymal cell Hox
122 toskeleton, cell growth, stress response, or immune cell function; however, the molecular functionali
124 onment in which DPCs infiltrate and resident immune cells generate cytotoxic reactive oxygen species.
128 NLRP3 inflammasome activity in human primary immune cells have been identified, and clinically promis
129 g roles of the immunoproteasome in activated immune cells have made it a rational candidate for the t
134 immune cells vs >/=5% of tumour-infiltrating immune cells [IC2/3]), chemotherapy type (vinflunine vs
135 is progression rate, hepatic infiltration of immune cells, IFN-lambda3 expression, and serum sCD163 l
139 ding of the function of local immune and non-immune cells in regulating the inflammatory process in t
143 ng and IL-17 expression in abundant CD161(+) immune cells in SHRs represent an abnormal proinflammato
144 escape immunosurveillance and interact with immune cells in the cancer microenvironment for survival
145 mmunoglobulin indices and the frequencies of immune cells in the cerebrospinal fluid (including B cel
146 disorder characterized by an accumulation of immune cells in the duodenal mucosa as a consequence of
150 e, luminal bacteria into specific intestinal immune cells in the living murine host during health and
152 cination promotes the prevalence of relevant immune cells in tonsillar follicles and support the use
153 shock (T/HS) have the potential to activate immune cells in vitro Here, we assess the function of ML
155 pulations in multidimensional space of known immune cells, including T cells, B cells, eosinophils, n
156 A third IL17 subfamily is activated in adult immune cells indicating that expression in immune cells
157 al was largely driven by CD8(+) T cells, and immune cell infiltrate in the tumor could be reprogramme
159 ted expression patterns with the presence of immune cell infiltrates and immune regulatory molecules,
160 lupus nephritis; however, it did not reduce immune cell infiltrates, or the deposits of IgG and comp
161 immune gene expression profile and decreased immune cell infiltration in an intradermal model of infe
163 nflammation, a hallmark of obesity, involves immune cell infiltration into expanding adipose tissue.
165 Fos-expressing livers display necrotic foci, immune cell infiltration, and altered hepatocyte morphol
166 ment epithelium (RPE) injury associated with immune cell infiltration, the nature of immune cell resp
169 irway inflammation as evidenced by increased immune cells infiltration and release of cytokines and c
171 he regulation and function of epidermal cell-immune cell interactions and into how components that ar
172 th a growing understanding of dynamic tumour-immune cell interactions and the mechanisms by which tum
173 vels of immune mediators and infiltration of immune cells into infected joints and surrounding tissue
174 mmatory responses and mobilization of innate immune cells into the tumors including neutrophils and N
175 neonatal infection susceptibility is due to immune cell-intrinsic defects and instead highlights act
176 ese studies indicate that Panx1 expressed in immune cells is critical for pain-like effects following
180 s as an early recruitment trigger for innate immune cells, it appears to operate as an inhibitor of T
181 s known to have an immunosuppressive role in immune cells, its expression level and role in endotheli
182 r, and induce PD-L1 expression in cancer and immune cells, leading to more susceptible targets for an
185 ere we review antitumor activities of innate immune cells, mechanisms of their synergy with adaptive
187 , where it stimulates the activity of innate immune cells, mesenchymal and hematopoietic stem cells,
189 oxygen, energetics, and redox homeostasis in immune cell metabolism, and how these factors are reflec
190 istence within DCs and possibly within other immune cells might contribute to the low response of A.
192 NA and a promising adjuvant target in innate immune cells; more recently STING has also been shown to
194 flammation, we have demonstrated that innate immune cells (notably, airway macrophages) play essentia
197 coating viral particles, mediating uptake by immune cells, or blocking interaction with host cell rec
199 o coordinating inflammatory responses within immune cells (p<0.05, Benjamini-Hochberg corrected).
204 itical function for IFITM3 may be to promote immune cell persistence at mucosal sites.Our study ident
205 data suggest fundamental changes in adaptive immune cell phenotypes may be associated with RSV clinic
209 ssue induces an immune response resulting in immune cells populating the lens that contribute to the
211 nels become more complex, detection of minor immune cell populations by traditional gating using biax
212 ion and DNA methylation patterns in specific immune cell populations in the Fulani to elucidate the m
214 o predict relative abundances of circulating immune cell populations that matched traditional hematol
216 nctionalized with amino groups (GONH2) on 15 immune cell populations, interrogating 30 markers at the
217 activation and impaired function of several immune cell populations, such as natural killer cells an
219 lex networks, interactions, and responses of immune cells produce diverse cellular ecosystems compose
221 Bioinformatic analyses using DNAm to infer immune cell proportions, part of a new field known as Im
225 sion of inflammatory mediators and increased immune cell recruitment, leading to enhanced bacterial c
228 l immunity such that by young adulthood, all immune cells responding to a foster dam immunogen are th
229 with immune cell infiltration, the nature of immune cell responses to RPE injury remains undefined.
230 r work demonstrates that these HCMV-specific immune cells retain many important functions and help to
233 suggests that enteric neurons and intestinal immune cells share common regulatory mechanisms and can
234 By cDNA library screening, we identified an immune cell-specific, co-stimulatory receptor B7.2 (CD86
235 fferential expression analysis uncovered new immune-cell-specific genes, including novel immunoglobul
237 e assessed and correlated to the presence of immune cell subsets and cytokine responses throughout th
238 ellular heterogeneity, defining the roles of immune cell subsets in AD onset and progression has been
240 ging, the function of Roquin was examined in immune cell subsets in the absence of autoimmune complic
241 rapamycin treatment alters the interplay of immune cell subsets involved in antiviral humoral immuni
242 r time-dependent phenotypic changes in blood immune cell subsets that occur following trauma, includi
244 teractor, and BAFF receptor, in sorted human immune cell subsets, we found that BCMA was transcribed
246 eal cellular biochemical sensory networks in immune cells, such as feedforward and feedback loops or
252 sstalk between EVTs, SpA cells, and decidual immune cells that governs their recruitment to SpAs in t
253 a diverse microbial ecosystem, and contains immune cells that greatly impact overall inflammatory ho
254 e interactions between H. hepaticus and host immune cells that may promote mutualism, and the microbe
255 ELs and IECs, and communication of IELs with immune cells that reside outside the intestinal epitheli
256 hways and regions of chromatin accessible in immune cells that was also represented in patients with
258 functional activity without the aid of other immune cells through the downregulation of activation ki
259 roparticles and their delivery to underlying immune cells; thus, they are crucial participants in muc
260 n opportunity to analyze the contribution of immune cells to brain atrophy in a system where persiste
262 experiments with PB, cetacean and seal spp. immune cells to evaluate the effect of realistic contami
263 Animal health depends on the ability of immune cells to kill invading pathogens, and on the resi
264 , interactions between epithelial and innate immune cells to maintain barrier integrity and prevent i
271 studied as an adhesion molecule involved in immune cell trafficking and is recognized as a regulator
274 ellular and molecular mechanisms involved in immune-cell trafficking and lymphatic drainage from the
275 Recognition of Ab-opsonized pathogens by immune cells triggers both TLR and Fc receptor signaling
280 aneously estimate the fraction of cancer and immune cell types from bulk tumor gene expression data.
282 sulting from diverse activities on different immune cell types in vivo, and the need to conduct mecha
284 e 2 immune responses and involve a number of immune cell types, including regulatory T (Treg) cells a
285 s neoantigen load, its cadre of infiltrating immune cell types, the T or B cell receptor repertoire,
289 0] or 1% to <5% [IC1] of tumour-infiltrating immune cells vs >/=5% of tumour-infiltrating immune cell
291 we found that GC receptor (GR) expression in immune cells was dispensable for successful therapy of a
292 he complex interactions between graphene and immune cells, we propose an integrative analytical pipel
293 ture, where patrolling neutrophils and other immune cells were virtually blind to the pathogen's pres
294 ometrial mucosa is populated by a variety of immune cells which in addition to providing host pathoge
295 thelial cells of arterioles in the brain and immune cells, which is in line with typhoid symptoms.
296 genomics offers powerful tools for studying immune cells, which make it possible to observe rare and
297 also influence the activation of peripheral immune cells, which regulate responses to neuroinflammat
298 R) ligands activate both innate and adaptive immune cells, while modulating the cellular immune respo
299 scular endothelial cells and the recipient's immune cells, without adversely affecting renal function
300 coordinated response of innate and adaptive immune cells working in concert, with many feed-forward
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