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1 We enrolled previously healthy children with RSV infection.
2 rgeted at providing an effective therapy for RSV infection.
3 isease severity in infants hospitalized with RSV infection.
4 l efficacy in participants with experimental RSV infection.
5 ribe that high-fiber diet protects mice from RSV infection.
6 cterize the nasal microbiome of infants with RSV infection.
7 rity in both outpatients and inpatients with RSV infection.
8 ons significantly related to the severity of RSV infection.
9 receptor antagonist was administered during RSV infection.
10 ng the best available animal models to study RSV infection.
11 differentiation, stability, and function in RSV infection.
12 g lymph nodes in wild-type BALB/c mice after RSV infection.
13 group for severe pneumonia, independently of RSV infection.
14 LC3 responses in STAT1-deficient mice during RSV infection.
15 Treg cell phenotype and function to control RSV infection.
16 an was significantly downregulated following RSV infection.
17 products for the prevention and treatment of RSV infection.
18 There is no vaccine yet available to prevent RSV infection.
19 nalyze the permissiveness of CD4+ T cells to RSV infection.
20 rch tool for evaluating infants with primary RSV infection.
21 emental oxygen use among HCT recipients with RSV infection.
22 ctively, compared with wild-type mice during RSV infection.
23 essed in smaller airways in a mouse model of RSV infection.
24 of children who died with community-acquired RSV infection.
25 antibodies in serum from infants with acute RSV infection.
26 cies in both murine and cotton rat models of RSV infection.
27 ponses comparable to those generated by live RSV infection.
28 agent approved for use for the treatment of RSV infection.
29 y epithelial cells) to establish its role in RSV infection.
30 efficacious vaccine or therapy available for RSV infection.
31 therapeutic targeting of TSLP during severe RSV infection.
32 ot mount an IL-13-producing ILC2 response to RSV infection.
33 effective treatment or vaccine available for RSV infection.
34 treatment with recombinant cytokines before RSV infection.
35 e plays a fundamental role in the outcome of RSV infection.
36 study of the risk for hospitalization due to RSV infection.
37 re are no effective antiviral drugs to treat RSV infection.
38 f neutrophils to the immune response against RSV infection.
39 upregulated especially at the later stage of RSV infection.
40 at Sirt1 was upregulated in mouse lung after RSV infection.
41 ntiviral efficacy in the cotton rat model of RSV infection.
42 ependent co-correlates of protection against RSV infection.
43 itivity of BN for point-of-care detection of RSV infection.
44 ance the adaptive immune response with later RSV infection.
45 governing the pathogenic recall responses to RSV infection.
46 pment of AHR and airway inflammation, during RSV infection.
47 es exist of the incidence or epidemiology of RSV infection.
48 rophils did not change the viral load during RSV infection.
49 firming the role of autophagy in suppressing RSV infection.
50 ldren with a history of laboratory-confirmed RSV infection.
51 asopharyngeal samples of children with acute RSV infection.
52 32 in the inhaled RBV group had symptomatic RSV infection.
53 form the basis of new therapeutics to treat RSV infection.
54 but rather in its activation by a subsequent RSV infection.
55 l to understand the immune response to human RSV infection.
56 (17.7%) had no known risk factors for severe RSV infection.
57 in shaping the immune response early during RSV infection.
58 ome on the severity and clinical outcomes of RSV infection.
59 lightly inhibited in cells exhibiting robust RSV infection.
60 roles in protecting the host against IAV and RSV infections.
61 ldren annually require medical attention for RSV infections.
62 cine appeared safe, immunogenic, and reduced RSV infections.
63 ure was reduction in hospitalizations due to RSV infections.
64 nts treated with oral or aerosolized RBV for RSV infections.
65 f RSV-naive animals or after two consecutive RSV infections.
66 d to promote fast host recovery from IAV and RSV infections.
67 in response to respiratory syncytial virus (RSV) infection.
68 ng important in respiratory syncytial virus (RSV) infection.
69 llowing IAV and respiratory syncytial virus (RSV) infections.
70 he treatment of respiratory syncytial virus (RSV) infections.
71 3 (HPIV3), and respiratory syncytial virus (RSV) infections.
72 ) is approved to treat high-risk infants for RSV infection(7,8), but other treatments, as well as vac
73 of infants from respiratory syncytial virus (RSV) infection, a severe acute lower respiratory tract d
75 n histone H3 Lys (K) 122, demonstrating that RSV infection activates BRD4 in vivo These data validate
76 stration of the chemoattractant CXCL1 during RSV infection affected disease severity as measured by w
82 sociated with respiratory sequelae following RSV infection and characterizing the viral load, RSV who
83 ion, transcriptome profiles of children with RSV infection and H. influenzae- and Streptococcus-domin
84 r matrix accumulation of HA occurs following RSV infection and may contribute to airway inflammation.
85 e target for preventative strategies against RSV infection and may inform the design of novel therape
87 rotein conformations, in vitro inhibition of RSV infection and propagation, and protective efficacy i
89 that Cd burden by dietary intake potentiates RSV infection and severe disease with associated mitocho
90 association was observed between early life RSV infection and subsequent childhood recurrent wheeze,
91 demiological and immunological background to RSV infection and subsequently focus on the promising pi
92 be useful for the prevention or treatment of RSV infection and support the use of the pre-F protein a
94 for children at risk for severe outcomes of RSV infection and thereby lower rates of hospitalization
95 However, both respiratory syncytial virus (RSV) infection and mutations in the receptor for advance
96 45) or evaluated as outpatients (n = 20) for RSV infection, and healthy noninfected age-matched contr
97 ed on APC after respiratory syncytial virus (RSV) infection, and its inhibition leads to exaggerated
98 During primary respiratory syncytial virus (RSV) infection, anti-Axl mAb treatment significantly inc
99 1 released by airway epithelial cells due to RSV infection appears to function as a paracrine factor
101 antibody responses established after natural RSV infections are poorly protective against reinfection
102 at the site of respiratory syncytial virus (RSV) infection are sparse despite nearly five decades of
104 ls play a critical role in clearing an acute RSV infection, as well as contributing to RSV-induced di
108 ificantly reduced the following responses to RSV infection: augmenting of inflammatory cells, especia
109 oped a model of respiratory syncytial virus (RSV) infection based on well-differentiated pediatric pr
110 g index for respiratory syncytial virus (ISI-RSV) infection, based on a cohort of 237 allogeneic hema
111 han 5 years who died with community-acquired RSV infection between Jan 1, 1995, and Oct 31, 2015, thr
112 y showed a complete lack of efficacy against RSV infection but also induced severe lung disease enhan
113 findings, Myd88/Trif/Mavs(-/-) mice survived RSV infection but displayed higher viral load and weight
114 ected BMDCs exacerbate a live challenge with RSV infection but was inhibited when BMDCs were treated
115 ble to influenza (seasonal and pandemic) and RSV infection by applying Poisson regression models to m
116 ur results provide a strategy for inhibiting RSV infection by mucosal and endotracheal delivery of do
121 s higher in samples collected at the time of RSV infection compared with samples collected one month
123 s in the lungs of juvenile mice during acute RSV infection could potentiate extracellular matrix remo
124 ion of UA or IL-1beta during neonatal murine RSV infection decreased mucus production, reduced cellul
125 able of inducing IFN-alpha prior to neonatal RSV infection decreased Th2-biased immunopathogenesis du
126 ease in vivo, in a murine model of pulmonary RSV infection, demonstrating maximal efficacy when appli
127 s elicited by Ad5.RSV-F and those seen after RSV infection; differences in antibody profiles were als
128 ed as any day while alive after diagnosis of RSV infection during which </=2 L of supplemental oxygen
129 data from hospitalized adults with confirmed RSV infections during 2 North American RSV seasons.
130 to spread, the high frequency of symptomless RSV infection episodes highlights a potentially importan
132 iated with an increased risk of asymptomatic RSV infection episodes were higher age, shorter duration
134 versican promotes airway inflammation during RSV infection further demonstrating that versican's role
135 econd decline >=5% and >=10% at 90 days post-RSV infection had a higher 1-year mortality (P = 0.004 a
139 sease following respiratory syncytial virus (RSV) infection has been linked to enhanced proinflammato
141 ific T cells mediate disease following acute RSV infection have been hampered by the lack of defined
143 nts after acute respiratory syncytial virus (RSV) infection have been obtained from animal experiment
145 uction of versican was not altered following RSV infection; however, BEC production of versican was s
146 ciated with the inflammatory response during RSV infection (i.e., CCL-2, CCL-3, CCL-5, IL-6) as well
149 st but not by a post-F VLP boost or a second RSV infection.IMPORTANCE Humans may experience repeated
150 function for IFI44 and IFI44L in controlling RSV infection.IMPORTANCE RSV infects all children under
151 s, like IAV and respiratory syncytial virus (RSV) infections, impose great challenges to public healt
153 age worldwide; therefore, the prevention of RSV infection in all infants represents a significant un
154 tected against severe lung injury induced by RSV infection in an experimental mouse model and in pedi
155 ines, and encourage more specific studies on RSV infection in BPD patients, including vaccine develop
157 antibodies play a role in protection against RSV infection in early life, but data regarding the conc
163 ghlight the dominance of type-2 responses to RSV infection in infants and suggest an important role o
164 ithelium that reproduce several hallmarks of RSV infection in infants, indicating that they represent
167 olar macrophages (rAMs) to susceptibility to RSV infection in mice that recovered from allergic airwa
168 been shown to confer robust immunity against RSV infection in mice, cotton rats, and nonhuman primate
178 provided nearly complete protection against RSV infection in the upper and lower respiratory tract a
181 ciation between respiratory syncytial virus (RSV) infection in early life and subsequent respiratory
188 development for respiratory syncytial virus (RSV) infection, including small molecules that target vi
192 in response to respiratory syncytial virus (RSV) infection induces bacterial biofilm formation throu
196 bronchiolitis revealed that the severity of RSV infection is determined by the TLR4 genotype of the
200 nses that play a role in the pathogenesis of RSV infection is needed for therapeutic development.
205 BACKGROUND Respiratory syncytial virus (RSV) infection is a cause of substantial morbidity and m
215 at produces intracellular H2S, we found that RSV infection led to a reduced ability to generate and m
216 Inhibition of either UA or IL-1beta during RSV infection led to chronic reductions in pulmonary imm
217 ice [SPC-Cre(+) Vcan(-/-)] demonstrated that RSV infection led to increased HA accumulation compared
223 nge the current paradigm that acquisition of RSV infection occurs only after birth and shift attentio
224 key roles in regulating inflammation during RSV infection of adult mice, we studied the role of thes
227 Despite their abundance in the lungs during RSV infection of both mice and man, the role of neutroph
230 opy and Western blotting results showed that RSV infection of human airway epithelial cells induced a
232 ur findings suggest that (antibody-enhanced) RSV infection of NK cells induces a proinflammatory rath
235 d Th17 differentiation, we hypothesized that RSV infection of STAT4-/- mice would result in enhanced
240 dren with acute respiratory syncytial virus (RSV) infection often develop sequelae of persistent airw
241 tudies was to explore the effect of previous RSV infection on murine antibody responses to RSV F and
243 tion with post-F-containing VLPs or a second RSV infection only weakly stimulated NA, even though tot
247 previously infected with RSV, while a second RSV infection or a postfusion F-containing VLP cannot.
250 Clinical diagnoses given to children with RSV infection presenting to ED or hospitalized were iden
253 host iron-binding protein transferrin during RSV infection promotes P. aeruginosa biofilm development
256 ment with the KDM6 inhibitor, GSK J4, during RSV infection reduced inflammatory DC in the lungs along
260 ously healthy infants <10 months of age with RSV infections representing the spectrum of disease seve
261 N-lambda airway secretion; (b) subjects with RSV infection showed the highest IFN-lambda airway level
262 tential to serve as a robust animal model of RSV infection, since human RSV does not fully replicate
263 ulmonary inflammation following both IAV and RSV infections, suggesting that macrophage PPAR-gamma is
264 dren with acute respiratory syncytial virus (RSV) infection, symptomatic non-RSV respiratory virus in
265 ic site O are more efficacious at preventing RSV infection than antibodies specific for antigenic sit
266 ote an altered Th2 immune response following RSV infection that leads to more severe immunopathology.
267 developed a severity score for infants with RSV infection that should be useful as an end point for
268 piratory disease (ERD) subsequent to natural RSV infection that was observed in clinical trials of fo
269 e are known clinical risk factors for severe RSV infection, the majority of those hospitalized are pr
270 For children who are at risk for severe RSV infections, the American Academy of Pediatrics recom
271 ted with autophagy-mediated processes during RSV infection, thereby directing efficient antiviral imm
272 way inflammation and airway resistance after RSV infection through mediating MMP-12 production via PA
274 bjective was to develop an in vitro model of RSV infection to evaluate interindividual variation in r
275 review the use of a neonatal mouse model of RSV infection to mimic severe infection in human infants
278 bution of adult respiratory syncytial virus (RSV) infections to the use of advanced healthcare resour
279 iewed the records of 124 HCT recipients with RSV infections treated with oral or aerosolized RBV from
281 g, and/or central cyanosis]) were tested for RSV infections using real-time reverse transcriptase-pol
282 nifestations of respiratory syncytial virus (RSV) infection vary widely from mild, self-limiting illn
287 n use by day 28 after the first diagnosis of RSV infection was lowest in patients presenting with URT
288 Using an Ifitm1(-/-) mouse, we show that RSV infection was more severe, thereby extending the ran
291 erimental human respiratory syncytial virus (RSV) infection, we investigate systemic and local virus-
292 hybrid model of respiratory syncytial virus (RSV) infection, we previously demonstrated that the CD8(
294 f enrollment, from infants hospitalized with RSV infection were quantified.Measurements and Main Resu
295 history and records of laboratory-confirmed RSV infections were obtained by linking the mortality da
296 ompared to non-adjvuanted G vaccine and live RSV infection, which correlated strongly with both neutr
297 of innate immunity may affect recovery from RSV infection will help guide the development of safe an
298 stigated the mechanism of action of HMGB1 in RSV infection with the aim of identifying new inflammato
300 lower peak viral load, absence of concurrent RSV infections within the household, infection by RSV gr