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1 under eCO(2) results in increased endogenous immune function.
2 t sample location to test temporal change in immune function.
3 tions with offspring growth, metabolism, and immune function.
4 rease tumor suppressor function, and enhance immune function.
5 to development, environmental responses and immune function.
6 e of C5aR2 as a powerful regulator of innate immune function.
7 RAS superfamily GTPases required for proper immune function.
8 ess specific features of adaptive and innate immune function.
9 ses BV walls, and that this is important for immune function.
10 at the level of protecting from host innate immune function.
11 ng the compartment with long-term defects in immune function.
12 seases of aging, and its potential impact on immune function.
13 Early life microbiome development trains immune function.
14 r-dependent adipose tissue expandability and immune function.
15 are related cell populations that provide an immune function.
16 tumor cell growth and suppressing antitumor immune function.
17 cell envelope and its impact on host innate immune function.
18 sphoprotein networks known to play a role in immune function.
19 nic microglia-like cells in order to enhance immune function.
20 ic and neural networks, the stress axis, and immune function.
21 1), which encode regulators required for TIR immune function.
22 ffect of chronic cerebritis on cognitive and immune function.
23 and somatic drivers, and support a role for immune function.
24 XFAD mice, many of which are associated with immune function.
25 n characterizing and diagnosing disorders of immune function.
26 remote organs and mucosal and hematopoietic immune function.
27 repair, cell cycle, signal transduction and immune function.
28 ecause they play a role in the regulation of immune function.
29 ated pathways including lysosomal and innate immune function.
30 ur findings provide a link between sleep and immune function.
31 negative breast cancer, several with a known immune function.
32 molecules influencing growth, migration, and immune function.
33 e circadian clock is a critical regulator of immune function.
34 ing tumor reduction while preserving patient immune function.
35 eins associated with NO signaling and innate immune function.
36 esponses to the microbiota and modulate host immune function.
37 platelets and the consequences for platelet immune function.
38 to identify and explain natural variation in immune function.
39 ating this transcription factor critical for immune function.
40 essive, acute stress can temporarily enhance immune function.
41 rforming in vitro studies assessing cellular immune function.
42 and key life-history events that may affect immune function.
43 atures relevant to asthma, inflammation, and immune function.
44 site can affect either treatment efficacy or immune function.
45 hat dLAN has transgenerational influences on immune function.
46 itis (RA) do not reverse underlying aberrant immune function.
47 t Escherichia coli, as a functional assay of immune function.
48 tution, including antigen-dependent adaptive immune function.
49 in after degranulation and reduced cytotoxic immune function.
50 l signaling, and evaluation of the resultant immune function.
51 rs associated with MPS maturation and innate immune function.
52 rily related to glucocorticoid signaling and immune function.
53 xhaustion, and senescence known to influence immune function.
54 genetic variation and stimulatory context on immune function.
55 drugs on primary human cells in relation to immune function.
56 ls maintained body mass despite variation in immune function.
57 specific differences in lactation, diet, and immune function.
58 n-excitable cells and is required for proper immune function.
59 microbiota, and disturbances in mucosal and immune function.
60 ections, likely because of severely impaired immune function.
61 rexpression in myeloid cells increases their immune function.
62 genes implicated in chronic pathologies and immune functions.
63 on of immunothrombi while maintaining innate immune functions.
64 cells of the adult - both cell-types having immune functions.
65 anonically known for its innate and adaptive immune functions.
66 of neurodevelopment, synaptic activity, and immune functions.
67 f several other reflexes regulating discrete immune functions.
68 tum is a visceral adipose tissue with unique immune functions.
69 e complexity of cell behavior in relation to immune functions.
70 of realistic contaminant mixtures on various immune functions.
71 al, metabolic, endocrine, cardiovascular and immune functions.
72 eeding, gastrointestinal (GI) digestive, and immune functions.
74 tion; 5) induces oxidative stress; 6) alters immune function; 7) alters cell signal transduction; 8)
75 kely to vary at spatial scales and influence immune function: (a) parasite pressure, (b) abiotic and
78 iations may modulate HIV vaccine effects and immune function after HIV vaccination.IMPORTANCE By anal
79 une defense, we predict a decrease in innate immune function along a gradient of increasing aridity f
80 s of labour appears to reveal differences in immune function among infants at risk of food allergy.
81 r regulatory locus that likely has a role in immune function and a locus regulating hippocampal long
82 mperature is known to affect many aspects of immune function and alterations in temperature regimes h
85 iated keratinocytes, comprising keratinocyte immune function and cellular structure, was found to be
86 ng the multi-layered processes that underlie immune function and dysfunction, but require a standardi
87 axis coordinates developmental remodelling, immune function and energy allocation in larval amphibia
90 n conjunction with ART treatment can restore immune function and may reduce viral reservoirs during c
91 me does seem to affect some pathways such as immune function and metabolism, our data suggest the mic
96 r better understanding of sex differences in immune function and opioid pharmacokinetic and pharmacod
97 have prominent roles in pathways other than immune function and overall the effect sizes were minima
98 f this pathway may have potential to restore immune function and promote viral control or elimination
99 istimed feeding has functional relevance for immune function and provide further evidence for the int
103 clude that GIMAP6 plays a role in modulating immune function and that it does this by controlling cel
104 or for 5 to 6 weeks and evaluated intestinal immune function and the composition of the fecal bacteri
105 s and its implication in the pathogenesis of immune function and the development of CF lung disease.M
109 the impact of these environmental factors on immune function and, when known, on alloimmune function,
110 d in brain development, synaptic plasticity, immune function and/or schizophrenia, showing some conve
111 he metaexposome in the context of early-life immune functioning and describe how various aspects of a
113 sure to high temperatures is known to impair immune functions and disease resistance of poultry.
115 he innate immune response affects downstream immune functions and, ultimately, the outcome of infecti
116 r in their activation state, contribution to immune function, and capacity to proliferate in vivo.
120 and ion homeostasis, cytokine signaling and immune function, and debris engulfment contributions tha
121 Vitamin D has an integral role in proper immune function, and deficiency is common among kidney t
122 ghlight recent work linking social behavior, immune function, and dopaminergic signaling in adolescen
124 y beneficial effects on cellular metabolism, immune function, and gene transcription involved in inna
127 immunoproteasome, like other aspects of host immune function, and indicate that immunoproteasome acti
129 ly has been studied extensively for roles in immune function, and our results identify a novel role f
130 ssion of gene sets associated with glial and immune function, and reduced expression of gene sets ass
131 trations and malaria infection as indices of immune function, and telomere lengths as an overall meas
132 They influence infant neurodevelopment and immune function, and they provide ~50% of milk's energy
133 rate age-related multi-morbidity by boosting immune function, and we consider whether physical activi
134 a composition in the infants' body and early immune function, and whether these contribute to the lat
135 the largest organ in the body with important immune functions, and accumulation of drug delivery syst
136 dipose tissue (VAT), a tissue with important immune functions; and (ii) individuals with poor fetal n
137 Further, we propose that sex differences in immune function are mediated, at least in part, by the e
141 to regulate stress, energy homeostasis, and immune functions are reported to be killed by developmen
142 an present for port placement with depressed immune function as a result of their treatment or diseas
144 n host physiology, regulating metabolism and immune function, as well as complex host behaviors.
145 ing neurotransmission, neurodevelopment, and immune function, as well as differential miRNA expressio
147 es that can selectively leverage the humoral immune functions, beyond binding and neutralization, res
148 e tested how diet composition affects innate immune function, body mass and moult separately and in c
150 causal effect of diet composition on innate immune function, body mass and moult: bulbuls were in a
152 ata on detailed patterns of baseline ART and immune function by GBD region, reproductive aging among
153 odels suggest that low social status affects immune function by increasing inflammation and compromis
156 glycolysis and ATP production could improve immune function, counteracting LA suppressive effects in
157 ng of how the amount of tonic signal impacts immune function, describing novel tools that have moved
158 23) is often elevated in CKD, and may impair immune function directly or indirectly through proinflam
160 ptic plasticity, glial cell development) and immune functions (e.g., immune system activation, leukoc
161 lloenzymes, in addition to playing a role in immune function, endocrine function, hematopoiesis, and
162 e development, bone synthesis, reproduction, immune function, energy metabolism, and cell signaling,
164 tween a metabolite known to be important for immune function-GSH-and the diffusion extracellular FW m
166 field, alterations in commensal bacteria and immune function have been implicated in behavioral defic
169 increased expression of genes with important immune functions (i.e., GAS6, ALOX15B, FCGR2B, LAIR1).
171 sturbance of the link between metabolism and immune function in CD8 + PD-1 + T cells in T2D was prove
175 enetic and environmental factors influencing immune function in different environments may provide in
177 ing role of biomaterials as tools to dissect immune function in fundamental and translational context
179 To date, there have been few studies of immune function in healthy older people in sub-Saharan A
180 clusion that suppression of PD effluent cell immune function in human subjects by standard PD fluid i
182 Our understanding of the deterioration in immune function in old age-immunosenescence-derives prin
185 ence suggests that gut microbiota influences immune function in the brain and may play a role in neur
186 on between neonicotinoid exposure and innate immune function in the bumblebee Bombus impatiens, which
187 provide additional evidence for the role of immune function in the etiology of DLBCL, the most commo
189 eview the current understanding of tuft cell immune function in the intestines, airways, and thymus.
190 dy, the impact of tumor secreted exosomes on immune function in the tumor environment was investigate
191 w that female insects (bed bugs) up-regulate immune function in their copulatory organ in anticipatio
192 story ecotypes, which are known to differ in immune function in their native habitats, raised under c
193 Our study highlights the role of innate immune function in thymic regeneration and restoration o
194 ficity and their impact on antibody-mediated immune function in vitro The impact of vFcgammaRs on HCM
198 and progression involve activation of innate immune functions in microglia, which are brain-resident
199 er cell cycle inhibitors to modulate various immune functions in support of effective antitumour immu
200 expression of genes associated with various immune functions in these cells from VL patients and com
201 r metabolic pathways that subsequently alter immune function, in a process called immunometabolism.
202 eported to be associated with alterations in immune function, in particular immune hyporesponsiveness
203 eplicable gene networks enriched for diverse immune functions including cytotoxicity, viral response,
204 ment of DCs in vitro caused an impairment in immune functions including differentiation, maturation,
207 ry to frequent antimicrobial use, suppressed immune function, increased exposure to healthcare settin
208 elating to adipose dysfunction and fibrosis, immune function, inflammation, and gastrointestinal inte
209 dies linking clonal hematopoiesis to altered immune function, inflammation, and nonmalignant diseases
210 e of "self" versus "nonself" to one in which immune function is critical for homeostasis of organs th
211 ampen B-cell activation, and restore overall immune function is crucial for preventing non-Hodgkin ly
214 Immunosenescence, an age-related decline in immune function, is a major contributor to morbidity and
215 o an immune challenge during puberty affects immune function later in life, which could permanently a
216 nance as well as clonal imbalances in normal immune function, making mLOY an attractive candidate mar
218 risk factors that, in addition to modulating immune function, may also converge to act on the vascula
219 se proteins (APPs), key components of innate immune function, measured in neonatal dried blood spots.
221 oral factors within a location may influence immune function more strongly than spatial variation in
222 ips were observed between cortisol level and immune function, nor between family income and height.
223 Together, our results establish that HVEM immune function, not binding to gD, mediates establishme
225 gen species, closely mimicking the defective immune functions observed in beta-thalassemia patients.
226 Cactin in the mammalian immune response, the immune function of Cactin in insects has not been descri
233 risingly, we show in this study that certain immune functions of CD8(+) T cells are enhanced in the a
234 ate the interplay of wholesome sleep and the immune functions of circulating monocytes and T cells in
238 tyrosine kinase activity of EGFR and innate immune functions of STING and suggest new experimental a
239 tional T cells, much less is known about the immune functions of unconventional T cells and their rol
241 enes encoding protein products that regulate immune function or cell adhesion and tumor cell metastas
244 essed in microglial cells, known to regulate immune functions, or both can cause, or alter risk for,
245 and exit the circulation to carry out innate immune functions, or undergo rapid apoptosis and macroph
247 utative mechanisms by which LAP may regulate immune function, perhaps through the metabolic reprogram
248 e of sustenance: a tissue integral to proper immune function, pesticide detoxification, overwinter su
252 ecrosis of the jaw involves disruption of DC immune functions required to clear bacterial infection a
253 Although their physiological and detrimental immune functions seem to depend on the anatomical compar
254 y associated with lipid metabolism, but with immune function, signalling and transcriptional regulati
255 reduced larval growth and survival, impaired immune function, skewed sex ratios, ovarian atresia, red
257 tion of AD risk genes associated with innate immune functions suggest that neuroinflammation has a pr
260 arboring genes that encode proteins of known immune function that alter risk of developing Alzheimer'
261 N has transgenerational effects on endocrine-immune function that may be mediated by global alteratio
262 portant insights into THC's acute effects on immune function that may have important medical implicat
263 ved an enrichment of pathways related to the immune function that reflects an increase towards positi
264 t for stratification in the establishment of immune functions that determine efficient seeding of per
265 fy a large surface essential for EDS1-SAG101 immune functions that extends from the N-terminal lipase
266 ral pathogens, antibodies mediate additional immune functions that may have both protective and patho
267 and implicated in leukocyte inflammatory and immune functions, the roles of alphaXbeta2 remain largel
268 ay decrease parasite performance or increase immune function, thereby reducing infection risk or the
271 s an immune checkpoint protein that inhibits immune function through its binding of the programmed ce
272 D73 has been implicated in the inhibition of immune function through overproduction of adenosine.
273 CD8+ T cells may be vital for altering host immune functions through increasing the accessibility of
274 mportant intestinal epithelial secretory and immune functions through its actions on epithelial musca
275 e varies with precipitation, we might expect immune function to be higher in the wet season due to in
277 nc supplementation is commonly used to boost immune function to prevent infectious diseases in at-ris
278 ptors, transporters, and other proteins with immune functions) to or from the PM via small, membrane-
279 the tumor microenvironment (TME), suppresses immune function via inhibition of T cell and NK cell act
280 al dysbiosis within the gut, altered mucosal immune function, visceral hypersensitivity, and abnormal
281 rition-sensitive trade-off between visceral (immune-function) vs. subcutaneous (body shape) adiposity
282 y mass and moult, showed that an increase in immune function was associated with a decrease in body m
285 oxygenase 1 (HO-1), a potential modulator of immune function, was increased in whole blood from beta-
287 marrow hematopoiesis is essential for proper immune function, we hypothesize that SCI disrupts bone m
288 ourea (ENU)-induced mutant mice for aberrant immune function, we identified mice with a syndromic dis
289 lly beneficial for enhancer architecture and immune functions were particularly frequently incorporat
291 cells into CD11c-positive DCs with aberrant immune functions while retaining the capability of proin
292 okine signaling and plays important roles in immune function, while abnormal JAK1 activity has been l
293 dicine that can take advantage of the body's immune functions will increasingly become clinically rel
295 stigate the interplay of innate and adaptive immune functions with chronic inflammation, anemia, and
296 cuss therapeutic strategies that can recover immune function, with a particular emphasis on approache
298 athways regulate many aspects of metabolism, immune function, wound repair, and protection of multipl
300 PD-L1 interaction to enhance T cell-mediated immune function, yet the effectiveness of anti-PD-L1/PD-