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1 odontal, cardiovascular, renal, hepatic, and immune function).
2 le, we show how Ab affinity modulates TRIM21 immune function.
3 affect microvascular flow, permeability, and immune function.
4 at increased risk of disease associated with immune function.
5 ignals can define intestinal homeostasis and immune function.
6 y deregulates a network of genes involved in immune function.
7 ween the human urinary metabolome and innate immune function.
8 athetic nervous system activity can modulate immune function.
9 PM2-mediated Ca(2+) signaling and limit host immune function.
10 us macaques to investigate how status alters immune function.
11 ell subsets and in early-life airway mucosal immune function.
12 , and the resultant restoration of antitumor immune function.
13 blood immune cells and early airway mucosal immune function.
14 whether PD-L1 on this population influences immune function.
15 ntext of ER stress without disrupting normal immune function.
16 rforming in vitro studies assessing cellular immune function.
17 -term sepsis-induced alterations in cellular immune function.
18 pacts many aspects of host biology including immune function.
19 ng cell structure, extracellular matrix, and immune function.
20 sion levels of a number of genes involved in immune function.
21 tic endothelial cells (LECs) are involved in immune function.
22 pathways involved in neural development and immune function.
23 ates that microbes have a large influence on immune function.
24 g a search for sepsis-induced alterations in immune function.
25 atures relevant to asthma, inflammation, and immune function.
26 ey trans-kingdom principles of NLR-dependent immune function.
27 nd serve as secondary messengers involved in immune function.
28 ion of peripheral B lymphocytes and impaired immune function.
29 site can affect either treatment efficacy or immune function.
30 characteristics, including those related to immune function.
31 whether chemomechanical coupling influences immune function.
32 unity in the gut is important for modulating immune function.
33 ted 474 genes not previously associated with immune function.
34 ticularly in patients with defects in innate immune function.
35 d placebo was observed in measures of innate immune function.
36 may reactivate in individuals with impaired immune function.
37 that provide natural feedback regulation of immune function.
38 loration as targets for boosting host innate immune function.
39 hat dLAN has transgenerational influences on immune function.
40 hogens express virulence factors that impair immune function.
41 key regulators of B cell fate decisions and immune function.
42 s niche is critical for reconstituting their immune function.
43 arburg VP40 assembles progeny and suppresses immune function.
44 itis (RA) do not reverse underlying aberrant immune function.
45 ole for SEPP1 in macrophage polarization and immune function.
46 has been shown to be promising at restoring immune function.
47 abetes, allergic airway disease, and altered immune function.
48 tract infections, indicating impaired local immune function.
49 m, postoperative weight gain, and effects on immune function.
50 t Escherichia coli, as a functional assay of immune function.
51 ating this transcription factor critical for immune function.
52 tution, including antigen-dependent adaptive immune function.
53 in after degranulation and reduced cytotoxic immune function.
54 l signaling, and evaluation of the resultant immune function.
55 rily related to glucocorticoid signaling and immune function.
56 xhaustion, and senescence known to influence immune function.
57 respiratory tract infections and to support immune function.
58 S, suggesting that wild-type HTT has a novel immune function.
59 the consequences of circadian variations on immune function.
60 ic ablation of core clock components impairs immune function.
61 essive, acute stress can temporarily enhance immune function.
62 ons such as glucose and lipid metabolism and immune function.
63 ncreased incidence of cancer due to impaired immune function.
64 of the TBK1-mTORC1 axis in control of innate immune function.
65 al categories, including both immune and non-immune functions.
66 balancing different physiological roles and immune functions.
67 ve both pathologic autoimmune and protective immune functions.
68 f several other reflexes regulating discrete immune functions.
69 T lymphocytes with innate- or adaptive-like immune functions.
70 tum is a visceral adipose tissue with unique immune functions.
71 the inhibition of macrophage activation and immune functions.
72 cient Ag recognition and consequently strong immune functions.
73 r effector cell receptors and perform potent immune functions.
74 toxic potential and protective antibacterial immune functions.
75 TSLP isoforms are responsible for 2 opposite immune functions.
76 e complexity of cell behavior in relation to immune functions.
77 of realistic contaminant mixtures on various immune functions.
78 lling events resulting in a diverse array of immune functions.
79 Viruses can evolve quickly to defeat host immune functions.
80 ression and M. tuberculosis-induced monocyte immune functions.
81 iated with gradual deterioration of adaptive immune function, a hallmark of which is the profound los
82 We investigated 9 loci involved in different immune functions (ADAM33, ADRB2, CD14, IL13, IL4, IL4R,
84 of the GIT microbiota in regulating adaptive immune function against systemic viral infections during
85 sceral hypersensitivity, altered mucosal and immune function, altered gut microbiota and altered cent
87 r regulatory locus that likely has a role in immune function and a locus regulating hippocampal long
88 luding a lack of efficacy in fully restoring immune function and a requirement for life-long treatmen
91 E) impairs the gut's absorptive capacity and immune function and causes decelerations in statural gro
92 iated keratinocytes, comprising keratinocyte immune function and cellular structure, was found to be
93 uirements for miRNAs in ILC2 homeostasis and immune function and compared the global miRNA repertoire
94 understanding of the genetic basis of human immune function and dysfunction, we performed an express
96 axis coordinates developmental remodelling, immune function and energy allocation in larval amphibia
97 ized expression of multiple genes regulating immune function and epithelial integrity in Glp1r(-/-) r
99 he gut microbiome plays an important role in immune function and has been implicated in several autoi
102 and 26 proteins implicated in cancer (80%), immune function and inflammatory response (40%), cell gr
103 uring chronic Ag settings partially restores immune function and is now used clinically to treat a va
104 iretroviral therapy (HAART) has improved the immune function and life expectancy in HIV-infected pati
105 elation between longitudinal measurements of immune function and lung-cancer risk in people living wi
106 n conjunction with ART treatment can restore immune function and may reduce viral reservoirs during c
108 about how genital microbiota influence host immune function and modulate disease susceptibility.
109 have prominent roles in pathways other than immune function and overall the effect sizes were minima
111 istimed feeding has functional relevance for immune function and provide further evidence for the int
112 pects of phero-perception, stress responses, immune function and regulation of gene expression that s
114 clude that GIMAP6 plays a role in modulating immune function and that it does this by controlling cel
115 al role for Cu and Zn intoxication in innate immune function and their direct bactericidal function.
116 might affect long-term mortality by changing immune function and thus potentially increasing the risk
118 e distribution that may well influence tumor immune function and underlie escape mechanisms from curr
120 the impact of these environmental factors on immune function and, when known, on alloimmune function,
121 d in brain development, synaptic plasticity, immune function and/or schizophrenia, showing some conve
122 n older age may be indicative of more viable immune functioning and be protective against certain cau
123 he metaexposome in the context of early-life immune functioning and describe how various aspects of a
124 outside the teleost MHC), implying distinct immune functions and conserved roles in shaping MHC path
126 d new light on its role in the modulation of immune functions and in its participation in the host re
127 PKcs regulate a genetic program with diverse immune functions and promote inflammasome activation and
128 he innate immune response affects downstream immune functions and, ultimately, the outcome of infecti
129 w cytometry to determine the level of innate immune function, and associated the findings with diseas
131 r in their activation state, contribution to immune function, and capacity to proliferate in vivo.
132 The thesis that EPA impacts on anabolism, immune function, and clinical outcomes post-esophagectom
134 plains how these metabolic setups facilitate immune function, and discusses the emerging evidence tha
136 truation, insulin resistance, alterations of immune function, and neuroendocrine dysfunction, among o
137 copper (Cu) are essential for optimal innate immune function, and nutritional deficiency in either me
138 gastrointestinal microbiome, development of immune function, and predisposition to allergic sensitiz
139 trations and malaria infection as indices of immune function, and telomere lengths as an overall meas
140 ciations between methamphetamine (meth) use, immune function, and the dynamics of HIV and cytomegalov
141 related with expression of genes involved in immune function, and were sufficient to modulate inflamm
142 the largest organ in the body with important immune functions, and accumulation of drug delivery syst
143 re recruited to the glioma environment, have immune functions, and can release a wide array of growth
146 s its expression levels return to normal and immune functions are restored when the inflammatory resp
147 ered membrane structure and augmented innate immune function as evidenced by resistance to invasion b
151 ing responses and can contribute to aberrant immune function associated with disease, has emerged as
153 vicular fluid (GCF) as surrogate measures of immune function at subcrestally placed dental implants a
155 emory CD4(+) T cells, which are critical for immune function, but has little effect on activated/prol
156 of immunology, used as a model of mammalian immune function, but how well immune responses of labora
157 FR2, Tnfrsf1b) regulates multiple aspects of immune function, but little is known about its role in t
159 e role of iPLA2beta in peritoneal macrophage immune function by comparing wild type (WT) and iPLA2bet
160 and their receptors play a critical role in immune function by directing cell-specific movement.
161 radioactive iodine and also direct cellular immune function by engaging endogenous antibodies as an
164 n of HIV-1 strengthens DC-mediated antiviral immune functions by simultaneously triggering Th17 expan
167 cessive AHR ligand degradation on intestinal immune functions could be counter-balanced by increasing
168 cell senescence is thought to contribute to immune function decline, but the pathways that mediate s
169 tral memory phenotypes (TCM), or to suppress immune function, depending on the concentrations and oth
170 ng of how the amount of tonic signal impacts immune function, describing novel tools that have moved
172 ptic plasticity, glial cell development) and immune functions (e.g., immune system activation, leukoc
173 us suggesting that virus replication affects immune function even in the context of this clinically b
174 racterized BAFFR-related innate and adaptive immune functions following infection with vesicular stom
176 ese findings identify a new important innate immune function for the PPARalpha signaling pathway in r
178 on the expression of any nine or more of 14 immune function genes at or above the 0.40 quantile for
181 s with similarly rapid increases in cellular immune function had IL-6 levels that tended to decrease
184 distinct phenotypic populations with unique immune functions, however the mechanism by which these p
185 to correct murine CD40L expression restored immune function; however, treated mice developed lymphop
186 increased expression of genes with important immune functions (i.e., GAS6, ALOX15B, FCGR2B, LAIR1).
187 tratumoral lymphocytes and directly suppress immune function, I reevaluate the passive lymphatic vess
188 he viral B19 molecule exerts some control of immune functions.IMPORTANCE It is of special importance
191 through P2X7 receptors (P2X7Rs) to modulate immune function in both inflammasome-dependent and -inde
193 Hazard ratios for diseases associated with immune function in children delivered by acute and elect
197 ic concentrations of PBDEs are able to alter immune function in frogs; however, further research is n
199 clusion that suppression of PD effluent cell immune function in human subjects by standard PD fluid i
203 ablation resulted in broad reconstitution of immune function in stressed T cells, inhibition of indiv
204 ence suggests that gut microbiota influences immune function in the brain and may play a role in neur
205 on between neonicotinoid exposure and innate immune function in the bumblebee Bombus impatiens, which
206 lications for modulating complement-mediated immune function in the microenvironment and on HCV-harbo
207 an increased risk of disease associated with immune function in the offspring, but these studies have
208 Our study highlights the role of innate immune function in thymic regeneration and restoration o
211 odents, yet little is known about rhythms of immune functions in humans and how they are affected by
212 persistent in vivo levels of LPS on specific immune functions in humans in the absence of chronic vir
213 (IL-17A) and CD8(+) T cells regulate diverse immune functions in microbial infections, malignancies,
214 xpression of IL-15 correlated with cytolytic immune functions in patients with B-cell lymphoma and fa
215 egative cohort allowed us to assess cellular immune functions in the context of different subclinical
216 eplicable gene networks enriched for diverse immune functions including cytotoxicity, viral response,
217 r involvement in the regulation of essential immune functions, including activation of the AIM2 infla
218 cell interactions and developed suppressive immune functions, including production of indoleamine 2,
220 definite NASH were associated with abnormal immune function, intestinal cholesterol absorption, and
222 press IFNlambda4 expression, suggesting that immune function is dependent on other IFNL family member
223 a form of SCID in which a minimal degree of immune function is preserved), as well as craniofacial a
226 Immunosenescence, an age-related decline in immune function, is a major contributor to morbidity and
227 ipokine linking appetite, energy balance and immune function, is required for ECM pathology and its l
229 f CD28 and its family members and ligands to immune function, many aspects of CD28 biology remain unc
230 ninfected patients, implying that preserving immune function may improve cardiovascular outcomes in H
231 induced during developmental plasticity, and immune function may provide a common mechanistic process
232 MM development, strategies aimed to increase immune functions may have important therapeutic implicat
233 risk factors that, in addition to modulating immune function, may also converge to act on the vascula
234 gut microbiome, intestinal permeability, gut immune function, motility, visceral sensation, brain-gut
236 gen species, closely mimicking the defective immune functions observed in beta-thalassemia patients.
237 y which neonicotinoids may impact the innate immune function of bumblebee pollinators in wild and agr
238 Cactin in the mammalian immune response, the immune function of Cactin in insects has not been descri
239 We report a novel extraribosomal innate immune function of mammalian ribosomal protein L13a, whe
241 ptive functions of cDCs revealed that innate immune functions of cDCs are insufficient to maintain ho
244 tudied Muc19(-/-) mice for changes in innate immune functions of saliva in interactions with S. mutan
246 his review, we consider the inflammatory and immune functions of VSMCs and how they may lead to media
247 tients who survive sepsis display suppressed immune functions, often manifested as an increased susce
248 enomic regions that contain genes related to immune function or cancer risk in humans that exhibit co
249 enes encoding protein products that regulate immune function or cell adhesion and tumor cell metastas
250 ibility to sepsis might be explained by male immune function or increased systemic burden from higher
252 and exit the circulation to carry out innate immune functions, or undergo rapid apoptosis and macroph
253 s not associated with any of our measures of immune function, perhaps suggesting immunological impair
254 utative mechanisms by which LAP may regulate immune function, perhaps through the metabolic reprogram
255 of treatment on body condition, haematology, immune function, physiological stress and oxidative stat
256 r surgery which could be due to ranging from immune function preservation to direct molecular mechani
257 to modification of infant formula to improve immune function, reduce inflammation and prevent conditi
258 Importantly, blockade of type I IFN improved immune function, reduced the HIV reservoir, and caused a
263 ies examining the roles of mTOR signaling in immune function revealed critical roles for mTOR in regu
264 associations with RNA regulatory processes, immune function, stem cell maintenance and binding sites
268 practice (control group; n = 102) or serial immune function testing (interventional group; n = 100)
270 fic Abeta hydrolysis appears to be an innate immune function that could be applied for therapeutic Ab
271 viduals might lead to significant changes in immune function that have thus far not been appreciated.
272 N has transgenerational effects on endocrine-immune function that may be mediated by global alteratio
273 lts identify ERAP1 as a modifier to leverage immune functions that may improve the efficacy of NK cel
274 and implicated in leukocyte inflammatory and immune functions, the roles of alphaXbeta2 remain largel
275 ay decrease parasite performance or increase immune function, thereby reducing infection risk or the
277 tegy for harnessing biomaterials to polarize immune function through controlled delivery of metabolic
279 Dysregulated activation of leukocyte innate immune functions thus plays a role in pathological throm
280 t biological effects of social inequality on immune function, thus improving our understanding of soc
281 plication permits the preservation of potent immune functions, thus preventing HIV-2 disease progress
283 F. tularensis to modulate macrophage innate immune functions to create an environment permissive for
284 de control of CLL with further impairment of immune function, to the new agents targeting CLL B-cell
285 ications in homeostasis, osteoclastogenesis, immune functions, tumor metastasis and infections such a
286 n are associated with nutritional status and immune function using longitudinal data spanning 10 year
289 ocorticoid hormone, mediates development and immune function via splenocyte immunohistochemistry anal
291 tored for diseases, and immune phenotype and immune function were evaluated by using flow cytometry,
292 s involved in DNA repair and antioxidant and immune functions were restored after the dietary-zinc in
293 embrane proteins, many without characterized immune functions, were downregulated during HIV infectio
294 teratocytes secrete products that alter host immune functions while also producing anti-microbial pep
295 okine signaling and plays important roles in immune function, while abnormal JAK1 activity has been l
296 dicine that can take advantage of the body's immune functions will increasingly become clinically rel
298 rom donor, host, and third party showed good immune function with rejection of third-party grafts fro
299 infection had discordant effects to restore immune function without reducing arterial inflammation.
300 PD-L1 interaction to enhance T cell-mediated immune function, yet the effectiveness of anti-PD-L1/PD-
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