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1 for Haemophilus colonization and subsequent respiratory tract infection.
2 ial virus (HRSV) is a major cause of serious respiratory tract infection.
3 edia occurs as a complication of viral upper respiratory tract infection.
4 at resulted in two bacteremias and one lower respiratory tract infection.
5 ere pulmonary exacerbation, cough, and upper respiratory tract infection.
6 amyxovirus that causes acute upper and lower respiratory tract infection.
7 as reduction in the incidence of viral upper respiratory tract infection.
8 l aspirate from a 7-month-old patient with a respiratory tract infection.
9 vg+) phase that are necessary for successful respiratory tract infection.
10 on following a primary diagnosis of an upper respiratory tract infection.
11 rs), 414 (47%) were women, and 379 (43%) had respiratory tract infection.
12 a exacerbations, and hospital attendance for respiratory tract infections.
13 sitive and culture-negative sepsis and lower respiratory tract infections.
14 f future hospital admission in children with respiratory tract infections.
15 appropriate antibiotic prescribing for acute respiratory tract infections.
16 articular concern in the management of lower respiratory tract infections.
17 the appropriate use of antibiotics for acute respiratory tract infections.
18 rum antibiotics for most children with acute respiratory tract infections.
19 before and after controlling for early-life respiratory tract infections.
20 t SSIs, susceptible staphylococcal SSIs, and respiratory tract infections.
21 ention of medically attended RSV acute lower respiratory tract infections.
22 enterococcal SSIs, but increase the risk of respiratory tract infections.
23 endations for targets in children with lower respiratory tract infections.
24 n children for the prevention of viral upper respiratory tract infections.
25 rging viral, bacterial, and fungal causes of respiratory tract infections.
26 AQLQ(S)], and incidence of exacerbations and respiratory tract infections.
27 2Rs may have therapeutic potential for upper respiratory tract infections.
28 R-deficient patients suffered from recurrent respiratory tract infections.
29 mune diseases, hematologic malignancies, and respiratory tract infections.
30 nts and young children to severe viral lower respiratory tract infections.
31 escribing of antibiotics for childhood upper respiratory tract infections.
32 ae (NTHI) is the causative agent of multiple respiratory tract infections.
33 tion did not reduce overall wintertime upper respiratory tract infections.
34 ospitalized patients <2 years old with lower respiratory tract infections.
35 gic association in persons with severe lower respiratory tract infections.
36 in D levels and a higher risk of viral upper respiratory tract infections.
37 ide and represent the leading cause of upper respiratory tract infections.
38 e been developed to monitor the emergence of respiratory-tract infections.
39 itudinal models [95% CI]: 0.71 [0.54-0.94]), respiratory tract infections (0.77 [0.59-0.99]), otitis
40 ent (PAD) patients, 4 (5%) adults with lower respiratory tract infection, 1 (2.6%) sputum sample from
42 ine [43%] patients receiving placebo), upper respiratory tract infection (11 [25%] patients vs two [1
43 ction (19 [7%] vs 11 [4%] vs 13 [5%]), upper respiratory tract infection (15 [5%] vs 15 [5%] vs 11 [4
44 on (343 [45%] infections), followed by lower respiratory tract infections (171 [22%]), gastrointestin
45 21 [20%] of 107 vs seven [6%] of 110), upper respiratory tract infections (18 [17%] vs ten [9%]), and
46 two studies, 1 681 020 events) and for lower respiratory tract infections (-18.48% [-32.79 to -4.17];
47 or abnormal dreams (4 [10%] vs none), upper respiratory tract infection (3 [7%] vs none], and urinar
48 s), and rates of hospital attendance for all respiratory tract infections (-3.45% [-4.64 to -2.25]; t
49 67 [29%] for reslizumab for study 2), upper respiratory tract infections (32 [13%] and 39 [16%]; 16
50 h dupilumab compared with placebo were upper respiratory tract infections (33-41% vs 35%) and injecti
52 ost common adverse events overall were upper respiratory tract infection (51 [9%] of 581 patients rec
53 tients), rhinitis (10 [16%] patients), upper respiratory tract infection (7 [11%] patients), and coug
54 ts were fatigue (25%), headache (13%), upper respiratory tract infection (8%), and arthralgia (8%).
56 cessful treatment outcomes for patients with respiratory tract infections across all health-care sett
57 c-inappropriate diagnoses (nonspecific upper respiratory tract infections, acute bronchitis, and infl
60 dged reasonably related to siltuximab (lower respiratory tract infection, anaphylactic reaction, seps
61 d high risk of future hospital admission for respiratory tract infection and could be used to reduce
62 from patients hospitalized with acute lower respiratory tract infection and identified factors assoc
63 y elective CS had an increased risk of lower respiratory tract infection and juvenile idiopathic arth
64 patients with community-acquired mild lower respiratory tract infection and matched controls of Cauc
65 months and 12 years diagnosed with an acute respiratory tract infection and prescribed an oral antib
66 nly reported adverse events (AEs) were upper respiratory tract infection and stomatitis of mostly gra
67 isable, causal association between RSV lower respiratory tract infection and subsequent long-term whe
68 ncytial virus (RSV) is responsible for lower respiratory tract infections and annually results in 200
69 three common viruses implicated in seasonal respiratory tract infections and are a major cause of mo
70 s, are responsible for the majority of upper respiratory tract infections and are associated with sev
75 esent in the nasal mucosa during acute viral respiratory tract infections and further characterize th
76 us (RSV) is the leading cause of acute lower respiratory tract infections and hospitalizations in inf
78 ory syncytial virus (RSV) causes acute lower respiratory tract infections and is the leading cause of
79 teroid-insensitive asthma is associated with respiratory tract infections and noneosinophilic endotyp
80 , influenza, and respiratory syncytial virus respiratory tract infections and ovalbumin-induced, seve
83 tackle emerging viruses that can cause fatal respiratory tract infections and to fill major gaps in t
84 ietary supplements, primarily to treat upper respiratory tract infections and to support immune funct
88 %]), febrile neutropenia (five [10%]), lower respiratory tract infection, and pneumonia (each three [
89 iratory tract illnesses, time to first upper respiratory tract infection, and serum 25-hydroxyvitamin
90 d placebo groups were dyspnoea, cough, upper respiratory tract infection, and worsening of IPF; and t
92 r respiratory tract infections, severe lower respiratory tract infections, and exacerbations of under
93 isodes of troublesome lung symptoms, asthma, respiratory tract infections, and neonatal airway immuno
95 y symptoms, severity of gastrointestinal and respiratory tract infections, and the use of antibiotics
103 y-confirmed antibiotic-resistant urinary and respiratory-tract infections are more likely to experien
106 didates were efficacious in preventing lower respiratory tract infection as well as in reducing the n
107 tis media development, but symptomatic upper respiratory tract infection (as opposed to asymptomatic
108 used Bordetella pertussis, a common neonatal respiratory tract infection, as a proof of concept to in
110 and the secondary end points included lower respiratory tract infections, asthma exacerbations, ecze
112 riate antibiotic prescribing for acute upper respiratory tract infections (AURIs) requires a better u
113 e number of laboratory-confirmed viral upper respiratory tract infections based on parent-collected n
114 ce of common nosocomial gastrointestinal and respiratory tract infections between groups (22 vs. 29 i
115 en hospitalized at one institution for lower respiratory tract infections between January 1, 2010, an
117 n are often triggered by viral and bacterial respiratory tract infections, but there is little eviden
118 nterval, 0.16-0.80; P = 0.01), but increased respiratory tract infections by 54% (relative risk, 1.54
120 uman respiratory syncytial virus (RSV) lower respiratory tract infection can result in inflammation a
123 rise in the global numbers of patients with respiratory tract infections caused by pan-antibiotic-re
124 ied a child with life-threatening, recurrent respiratory tract infections, caused by viruses includin
125 , stinging insects, fungi, pollutants, viral respiratory tract infections, climate change, and microb
126 60 yr) patients in health and during a lower respiratory tract infection, community-acquired pneumoni
129 peripheral edema, skin ulcer, anemia, upper respiratory tract infection, diarrhea, and nasopharyngit
130 ice with TP73 deficiency suffer from chronic respiratory tract infections due to profound defects in
131 al virus (RSV) is the primary cause of lower respiratory tract infection during childhood and causes
132 have highlighted the important role of viral respiratory tract infections during infancy and early ch
133 9% women) for antibiotic-inappropriate acute respiratory tract infections during the baseline period
134 ation study and subsequent symptoms of lower respiratory tract infections during the first year of li
135 a human pathogen that can cause severe lower respiratory tract infections, especially in infants.
136 HBoV1 is pathogenic to humans, causing acute respiratory tract infections, especially in young childr
137 llenges in improving management outcomes for respiratory tract infections exist: rapid identification
139 eight [8%] patients in each group) and upper respiratory tract infections (five [5%] patients in each
140 6, the most common adverse events were upper respiratory tract infections (four [4%], eight [8%], ten
142 Adverse events were manageable and included respiratory tract infections, gastrointestinal symptoms,
144 ects of oral corticosteroids for acute lower respiratory tract infection in adults without asthma.
150 RSV and hMPV are the leading causes of acute respiratory tract infection in infants and children.
151 RSV and hMPV are the leading causes of acute respiratory tract infection in infants and children.
152 the most prevalent worldwide cause of severe respiratory tract infection in infants and young childre
153 nza virus type 3, two major causes of severe respiratory tract infection in infants and young childre
154 syncytial virus (RSV) is a leading cause of respiratory tract infection in infants, causing signific
155 rus (hRSV) is a leading cause of acute lower respiratory tract infection in infants, elderly and immu
156 ute bronchiolitis is the most frequent lower respiratory tract infection in infants, yet there are no
159 efficiently inhibits established acute lower respiratory tract infection in the animals, even when tr
160 the pitavastatin group (n=12, 10%) and upper respiratory tract infection in the pravastatin group (n=
161 tial virus (RSV) is a leading cause of lower respiratory tract infection in young children worldwide.
162 cytial virus is a major cause of acute lower respiratory tract infection in young children, immunocom
163 -level proportion of prescriptions for upper respiratory tract infections in 2-14-year-old outpatient
164 cause of otitis media in children and lower respiratory tract infections in adults with chronic obst
165 fluenzae frequently causes noninvasive upper respiratory tract infections in children but can also ca
166 e (NTHi) frequently causes noninvasive upper respiratory tract infections in children but can cause i
167 us (RSV) is a major cause of upper and lower respiratory tract infections in children for which no va
168 RSV) is the leading etiologic agent of lower respiratory tract infections in children, but no license
177 eptibility and exaggerated response to lower respiratory tract infections in general rather than on t
178 mergence of several novel viruses that cause respiratory tract infections in human beings, including
179 cause the majority of acute upper and lower respiratory tract infections in humans, particularly in
181 served in vivo and the occurrence of chronic respiratory tract infections in immunocompromised hosts.
182 erum and causes otitis media in children and respiratory tract infections in individuals with underly
184 al virus (RSV) is the leading cause of lower respiratory tract infections in infant and elderly popul
185 RSV) is the most common cause of viral lower respiratory tract infections in infants and children und
187 al virus (RSV) is the leading cause of lower respiratory tract infections in infants, a safe and effe
188 genome viruses, is a leading cause of lower respiratory tract infections in infants, young children,
189 tial virus (RSV) can cause devastating lower respiratory tract infections in preterm infants or when
190 sis of HIES plus hypereosinophilia and upper respiratory tract infections in the absence of parenchym
192 ed with an increased risk of upper and lower respiratory tract infections in the outpatient setting b
197 le-stranded DNA parvovirus that causes lower respiratory tract infections in young children worldwide
198 emerging respiratory virus that causes lower respiratory tract infections in young children worldwide
199 single most important cause of serious lower respiratory tract infections in young children, yet no h
200 single most important cause of serious lower respiratory tract infections in young children, yet no h
207 a major causative agent of upper- and lower-respiratory-tract infections in infants, the elderly, an
208 ild diarrhea (in 52% of the patients), upper respiratory tract infection (in 48%), nausea (in 47%), a
209 Common grade 1-2 toxicities included upper respiratory tract infections (in 28 [57%] of 49 patients
212 CD4 cell counts are at higher risk for lower respiratory tract infections, indicating impaired local
213 thelial secretome participating in RSV lower respiratory tract infection-induced airway remodeling.
214 n adverse events were nasopharyngitis, upper respiratory tract infection, influenza, and back pain.
215 s pneumoniae, the transition to severe lower respiratory tract infection is associated with an increa
217 Respiratory syncytial virus (RSV) lower respiratory tract infection is implicated in asthma deve
219 g for viruses in children who present with a respiratory tract infection is to differentiate between
222 nfancy, specifically the occurrence of lower respiratory tract infection, is associated with low lung
223 can predict the risk of progression to lower respiratory tract infection (LRTI) and RSV-associated mo
224 here is no effective treatment for RSV lower respiratory tract infection (LRTI) and that supportive c
226 inguishing between bacterial and viral lower respiratory tract infection (LRTI) remains challenging.
227 ed pneumonia, and secondary outcome, a lower respiratory tract infection (LRTI) without radiographic
228 iratory tract infection (URTI) without lower respiratory tract infection (LRTI), URTI progressing to
233 cytial virus (RSV) and rhinovirus (RV) lower respiratory tract infections (LRTIs) being strongly asso
234 spiratory tract infections (URTIs) and lower respiratory tract infections (LRTIs) was collected with
236 growth of pathogens potentially relevant to respiratory tract infection may be triggered by changes
238 ich underlie the increased susceptibility to respiratory tract infections of patients with Down syndr
239 3 infections (two lung infections, one upper respiratory tract infection, one sepsis, and one mucosit
240 y their child exhibited symptoms of an upper respiratory tract infection or asthma exacerbation (epis
241 Eighteen (86%) patients were treated for respiratory tract infections; others were treated for bl
242 es of cow's milk and occurrence of rhinitis, respiratory tract infections, otitis, and fever were ass
243 irus (CMV) antigenemia (p = 0.005) and lower respiratory tract infection (p = 0.003) and no leucopeni
244 ly associated with a recent history of upper respiratory tract infections (P = 0.0064), and marked by
245 he mean number of laboratory-confirmed upper respiratory tract infections per child was 1.05 (95% CI,
246 Subject Headings terms: "acute bronchitis," "respiratory tract infection," "pharyngitis," "rhinosinus
247 The most frequent adverse events were upper respiratory tract infection (placebo 6 [7%] patients vs
248 considering prevention or treatment of viral respiratory tract infections, potential targets include
249 ypically young children with upper and lower respiratory tract infection, presenting with symptoms in
250 icantly worse survival than those with upper respiratory tract infection (probable: hazard ratio [HR]
252 elop respiratory syncytial virus acute lower respiratory tract infection.Respiratory syncytial virus
257 urden of severe human metapneumovirus (HMPV) respiratory tract infections (RTIs) in European children
260 outcomes (incidence of gastrointestinal and respiratory tract infections separately, duration of gas
261 ized adults varies widely and includes upper respiratory tract infections, severe lower respiratory t
263 healthy individuals with a history of upper respiratory tract infection, soft tissue contusion, and
264 efit of ribavirin-based therapy at the upper respiratory tract infection stage and the highest risk f
265 hat colonize the human pharynx and can cause respiratory tract infections, such as acute otitis media
266 osteroids should not be used for acute lower respiratory tract infection symptoms in adults without a
267 or duration or severity of other acute lower respiratory tract infection symptoms, duration of abnorm
268 es were duration and severity of acute lower respiratory tract infection symptoms, duration of abnorm
270 vents in both groups were headache and upper respiratory tract infection (ten [16%] for both events i
271 act animals demonstrated various symptoms of respiratory tract infection, they were mild, and the cal
272 ral, bacterial, or fungal pathogens, such as respiratory tract infections, this necessitates large pa
277 s completed daily from the onset of an upper respiratory tract infection (URTI) until asthma symptom
278 e grouped according to the presence of upper respiratory tract infection (URTI) without lower respira
280 We assessed the seasonality of viral lower respiratory tract infections (V-LRI), bacteremic pneumon
281 LRE1C in three index patients with recurrent respiratory tract infections, very low B-cell numbers an
283 sLTR1 signaling in the first days of a viral respiratory tract infection was sufficient to reduce acc
284 The increasingly recognized role of viral respiratory tract infections was reflected in publicatio
285 one focal and one systemic symptom of acute respiratory tract infection were assigned 1:1 to receive
287 enting with acute cough (for </=28 days) and respiratory tract infection were recruited to a prognost
288 of in-county children hospitalized for lower respiratory tract infections were admitted to Cincinnati
290 ous events (SIEs) (gastroenteritis and lower respiratory tract infections) were investigated for 751
291 piratory syncytial virus (RSV) causes severe respiratory tract infections, which might have a role in
292 pansion of CD8(+) T cells following an upper respiratory tract infection with a pathogenic influenza
293 dex was found to be a robust marker of viral respiratory tract infection with a sensitivity of 80% an
296 infections (comprising both upper and lower respiratory tract infections with viruses, bacteria, and
297 eumovirus (HMPV) is a leading cause of acute respiratory tract infection, with significant morbidity
299 reduced antibiotic use for non-severe acute respiratory tract infection without compromising patient
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