ライフサイエンスコーパス: respiratory illness

1 data on outcomes of people hospitalized with respiratory illness.

2 sociated with an outbreak of enterovirus-D68 respiratory illness.

3 subset of three of the seven hospitals with respiratory illness.

4 l swabs for the detection of RSV during each respiratory illness.

5 RT-PCR) after a clinical encounter for acute respiratory illness.

6 samples collected from patients with febrile respiratory illness.

7 4.3%-86.9%) against medically attended acute respiratory illness.

8 responsible for seasonal epidemics of acute respiratory illness.

9 the diagnosis of asthma or prior history of respiratory illness.

10 roportion of individuals who sought care for respiratory illness.

11 d monitored for 5 d for the development of a respiratory illness.

12 nery to replicate, resulting in epidemics of respiratory illness.

13 ost patients presented with an acute febrile respiratory illness.

14 ficantly contributes to hospitalizations for respiratory illness.

15 y recognized as a significant cause of adult respiratory illness.

16 T and MPO, ambient air pollutants, and acute respiratory illness.

17 n general are determinants of postdeployment respiratory illness.

18 bited each of 11 symptoms and signs of acute respiratory illness.

19 ring or after a clinical encounter for acute respiratory illness.

20 y discovered paramyxovirus that causes acute respiratory illness.

21 persons admitted to the hospital with acute respiratory illness.

22 f HRV PCR positivity to clinical symptoms of respiratory illness.

23 e East respiratory syndrome-CoV, cause acute respiratory illness.

24 infection is most frequently associated with respiratory illness.

25 f enterovirus D68 (EV-D68)-associated severe respiratory illness.

26 ter in 4 states were hospitalized with acute respiratory illness.

27 ted with isolated cases or small clusters of respiratory illness.

28 in the United States associated with severe respiratory illness.

29 ncommon human pathogen, associated with mild respiratory illness.

30 tter understand the role of EV-D68 in severe respiratory illness.

31 one symptom that was consistent with a viral respiratory illness.

32 eumovirus (HMPV) is a leading cause of acute respiratory illness.

33 breathing problems, tiring easily, and acute respiratory illnesses.

34 tendees had multiple viruses detected during respiratory illnesses.

35 bidity and mortality from cardiovascular and respiratory illnesses.

36 cold symptoms and again during self-reported respiratory illnesses.

37 ease, and more than 1.1 million cases of all respiratory illnesses.

38 te differences in the cause and prognosis of respiratory illnesses.

39 , including cardiovascular, oncological, and respiratory illnesses.

40 mens were collected from subjects with acute respiratory illnesses.

41 ssociated with emergency room visits for all respiratory illnesses.

42 as first-line treatment for various chronic respiratory illnesses.

43 collected from subjects with reported acute respiratory illnesses.

44 nificant differences in hospitalizations for respiratory illness (1.1% compared with 2.2%, respective

45 ) was only slightly lower than in those with respiratory illness (28/77 [36%]).

46 patients were more likely to report febrile respiratory illness (57% vs 11%; P< .001) and to have ha

47 ntified 26 residents and 13 staff with acute respiratory illness; 8 residents (31%) developed radiogr

48 The association of respiratory-illness absences with functional variants in

49 mplicated in a widespread outbreak of severe respiratory illness across the USA in 2014 and has also

50 In 2014, EV-D68 caused widespread severe respiratory illness across the USA, disproportionately a

51 with the large outbreak of EV-D68-associated respiratory illness, although direct laboratory evidence

52 ld likely substantially reduce the burden of respiratory illness among children in rural and urban ar

53 Subsequent reports of febrile respiratory illness among health care personnel suggeste

54 Bordetella pertussis causes severe respiratory illness among infants and adolescents.

55 Ad serotype, caused a protracted outbreak of respiratory illness among military recruits.

56 ghts the importance of surveillance for mild respiratory illness among populations frequently exposed

57 HRV-C is increasingly associated with lower respiratory illness among populations such as children a

58 dence interval, 30.2%-89.1%) against febrile respiratory illness and 66.4% (95% CI, 14.3%-86.9%) agai

59 al secretions were sampled during periods of respiratory illness and at 1 year of age and were analyz

60 Henipavirus infection causes severe respiratory illness and encephalitis.

61 ar-old woman presenting with 5 days of upper respiratory illness and facial pain.

62 vascular disease and secondary outcomes were respiratory illness and fractures.

63 navirus (MERS-CoV) infection causes an acute respiratory illness and is associated with a high case f

64 onal pilot study to identify absences due to respiratory illness and laboratory-confirmed influenza i

65 es is the largest one associated with severe respiratory illness and neurological complication.

66 cimens from hospitalized patients with acute respiratory illness and outpatients with influenza-like

67 s and feline calicivirus (FCV), which causes respiratory illness and stomatitis in cats.

68 , we enrolled hospitalized adults with acute respiratory illness and tested each for influenza using

69 tensive care units (PICUs) with acute severe respiratory illness and testing positive for influenza w

70 Hundreds of cases of respiratory illness and/or dermatitis have been recorded

71 health concern, causing tens of millions of respiratory illnesses and 250,000 to 500,000 deaths worl

72 working adults with medically attended acute respiratory illnesses and compared outcomes for subjects

73 es such as vaccination could decrease severe respiratory illnesses and complications in the elderly.

74 es collected from children hospitalized with respiratory illnesses and positive for influenza by age

75 virus (CoV) HKU1 is a pathogen causing acute respiratory illnesses and so far little is known about i

76 collected from subjects with reported acute respiratory illnesses and tested by real-time reverse tr

77 specific associations with more severe viral respiratory illnesses and the risk of virus-induced exac

78 to individual differences in childhood viral respiratory illnesses and virus-induced exacerbations of

79 , five with enterovirus-D68-associated upper respiratory illness, and 16 with aseptic meningitis or e

80 nce for influenza-like illness, severe acute respiratory illness, and laboratory-confirmed influenza

81 posure is known to cause allergic reactions, respiratory illness, and may be responsible for some for

82 ngitis, gastroenteritis, encephalitis, acute respiratory illness, and neonatal sepsis-like disease.

83 phytoplankton and reports of eye irritation, respiratory illness, and rash.

84 pecimens [637 (89%) from patients with acute respiratory illness] and 400 cerebrospinal fluid specime

85 tiviral receipt among outpatients with acute respiratory illness (ARI) and antibiotic receipt among p

86 spitalizations associated with febrile acute respiratory illness (ARI) during a 2-year period (July 2

87 We identified inmates with acute respiratory illness (ARI) from 1 November 2009 to 24 Feb

88 Outbreaks of human adenovirus (HAdV) acute respiratory illness (ARI) have been well documented amon

89 years of age who were hospitalized for acute respiratory illness (ARI) in 3 US counties during Octobe

90 d within a prospective cohort study of acute respiratory illness (ARI) in Andean children <3 years of

91 eumovirus (HMPV) is a leading cause of acute respiratory illness (ARI) in children.

92 on of human rhinovirus (HRV) to severe acute respiratory illness (ARI) is unclear.

93 ors from prospective, population-based acute respiratory illness (ARI) surveillance at a large US ped

94 ons vaccinated among 192 controls with acute respiratory illness (ARI) who tested negative for influe

95 nation had 37.7% effectiveness against acute respiratory illness (ARI), 50.3% against a febrile episo

96 ousehold data to measure self-reported acute respiratory illness (ARI), before, during, and after sch

97 ccine for prevention of RSV-associated acute respiratory illness (ARI), defined by specified symptoms

98 cytial virus (RSV) is a major cause of acute respiratory illness (ARI).

99 healthy adults who were monitored for acute respiratory illness (ARI).

100 ears admitted to 1 of 4 hospitals with acute respiratory illness (ARI).

101 6004 outpatients aged >/=6 months with acute respiratory illness (ARI).

102 The severity and rates of rhinovirus acute respiratory illnesses (ARIs) in adults are uncertain.

103 exacerbation of asthma and causes most acute respiratory illnesses (ARIs), which may manifest as infl

104 aditionally been the site for studying acute respiratory illnesses (ARIs).

105 An outbreak of severe respiratory illness associated with enterovirus D68 (EV-

106 ginning in August, 2014, increases in severe respiratory illness associated with EV-D68 were reported

107 Two cases of febrile respiratory illness associated with untypeable influenza

108 aining facility reported a cluster of severe respiratory illnesses associated with a rare human adeno

109 es was examined among outpatients with acute respiratory illness at 5 US sites using a test-negative

110 olated from recruits presenting with febrile respiratory illness at 8 training sites nationwide betwe

111 from children presenting with upper or lower respiratory illness at acute care visits were tested for

112 ths of age or older who presented with acute respiratory illness at ambulatory care clinics in geogra

113 of Health investigated an outbreak of lower respiratory illnesses at a hospital in Jordan; 2 fatal c

114 tial may modify the impact of PM2.5 on acute respiratory illnesses at low PM2.5 concentrations.

115 ith several human disease conditions such as respiratory illnesses, auto-immune disorders and hepatit

116 , Illinois, and Colorado showed increases in respiratory illness between August and September, 2014,

117 occus species and age of first febrile lower respiratory illness, both of which are known asthma risk

118 nique opportunity to estimate the outpatient respiratory illness burden by etiology.

119 s study: (1) describes the viral etiology of respiratory illness by prospectively collecting weekly s

120 (20.0% vs. 9.9%; P = 0.02); early life lower respiratory illness caused by respiratory syncytial viru

121 etions of infants surviving various forms of respiratory illness caused by RSV or influenza viruses,

122 Pertussis is a highly contagious respiratory illness caused by the bacterial pathogen Bor

123 Pertussis is a contagious, acute respiratory illness caused by the bacterial pathogen Bor

124 Pertussis is a highly contagious, acute respiratory illness caused by the bacterial pathogen Bor

125 Respiratory illness caused by viral infection is associa

126 cines in preventing medically attended acute respiratory illnesses caused by influenza.

127 Influenza is an acute respiratory illness, caused by influenza A, B, and C vir

128 RV-C was significantly associated with lower respiratory illness, compared with HRV-A (P = .014).

129 e of acute gastroenteritis, while in animals respiratory illness, conjunctivitis, stomatitis, and hem

130 ct of masks and respirators against clinical respiratory illness (CRI) (risk ratio [RR] = 0.59; 95% c

131 Outcomes included clinical respiratory illness (CRI) and laboratory-confirmed respi

132 2 hospitals in southeast Michigan for acute respiratory illnesses, defined by admission diagnoses, o

133 oportion of household contacts in whom acute respiratory illness developed decreased with the size of

134 An acute respiratory illness developed in 78 of 600 household con

135 eholds (72% of the 216 households), an acute respiratory illness developed in none of the household c

136 A case was a child who had an acute respiratory illness during 2 November-18 December 2009,

137 s aged >/=50 years who sought care for acute respiratory illness during 3 influenza seasons: 2008-200

138 Adults hospitalized with respiratory illness during 3 winters underwent comprehen

139 njugate vaccination of their infants against respiratory illness during early infancy.

140 bsequent development of clinical symptoms of respiratory illness during the trial.

141 ult populations under surveillance for acute respiratory illness during the winters of 1999-2003.

142 (Ad14) that has caused increased severity of respiratory illnesses during globally distributed outbre

143 Subjects with respiratory illnesses during subsequent winters were tes

144 iori definitions of diarrhea and acute lower respiratory illness episodes.

145 type 1 (HPIV1) also causes severe pediatric respiratory illness, especially croup.

146 d 47% with specimen collected </=7 days from respiratory illness/fever onset).

147 e-specific rates of medically attended acute respiratory illness for health plan members at the inter

148 V1 are major viral causes of acute pediatric respiratory illness for which no vaccines or suitable an

149 anthrax and identified high risks of serious respiratory illnesses for persons infected with human im

150 ct of the new adenovirus vaccines on febrile respiratory illness (FRI) and adenovirus rates and inves

151 Febrile respiratory illness (FRI) has a high impact on public he

152 60s in association with outbreaks of febrile respiratory illness (FRI) in military boot camps and civ

153 ary training setting, where rates of febrile respiratory illness (FRI) often reach epidemic levels.

154 Data were collected from ongoing febrile respiratory illness (FRI) surveillance and from a retros

155 hood to prescribe antimicrobials for febrile respiratory illness (FRI).

156 y case-control studies exclude controls with respiratory illness from enrollment or analyses.

157 The women were followed up for respiratory illness from midpregnancy and together with

158 infection that is associated with a range of respiratory illnesses, from common cold-like symptoms to

159 syndromes, including asymptomatic infection, respiratory illness, gastroenteritis, and meningitis.

160 ects reporting with moderate to severe acute respiratory illness had illness and virus quantitation f

161 ng to hospital, but its impact on subsequent respiratory illnesses has not been defined.

162 th related coronaviruses, which cause lesser respiratory illnesses, has recently focused on the uniqu

163 wborn (PPHN), a potentially serious but rare respiratory illness, have made clinicians and patients m

164 azard ratio = 2.07, 95% CI: 1.79, 2.40), and respiratory illness (hazard ratio = 2.48, 95% CI: 2.12,

165 tributed to a modest proportion of all-cause respiratory illness hospitalization among black-African

166 tes pneumonia from other causes of childhood respiratory illness, hypoxia and increased work of breat

167 CoV illnesses were compared with other acute respiratory illnesses identified by active surveillance,

168 es from a prospective, longitudinal study of respiratory illness in 119 children who attended daycare

169 ptomatic enrollment in 3% (5/149) and during respiratory illness in 2% (2/106) of the cases.

170 thly hospitalization and mortality rates for respiratory illness in 37 army camps, as well as the rat

171 el enterovirus isolated from a case of acute respiratory illness in a Nicaraguan child.

172 RSV is a common cause of acute respiratory illness in adults aged >/= 50 years; the ris

173 Data on causes of death due to respiratory illness in Africa are limited.

174 Influenza is a major cause of respiratory illness in Africa, especially in children.

175 he host cell machinery to replicate, causing respiratory illness in annual epidemics and pandemics of

176 In a previous study of acute febrile respiratory illness in Bangladesh, we tested paired seru

177 ase cases in North America, including severe respiratory illness in children and acute flaccid myelit

178 is a causative agent of recent outbreaks of respiratory illness in children in the United States.

179 istent with anecdotal reports of a preceding respiratory illness in Guillain-Barre syndrome and has i

180 irus, nCoV, as the causative agent of severe respiratory illness in humans originating in Saudi Arabi

181 hat cause neurotoxic shellfish poisoning and respiratory illness in humans, as well as massive fish k

182 yndrome coronavirus (MERS-CoV) causes severe respiratory illness in humans.

183 Bacillus cereus G9241 causes an anthrax-like respiratory illness in humans; however, the molecular me

184 rtunistic environmental pathogen that causes respiratory illness in immunocompromised patients, such

185 ) infection is a major cause of severe lower respiratory illness in infants and young children, but t

186 syncytial virus (RSV) is the major cause of respiratory illness in infants worldwide.

187 olated from a patient who died from a severe respiratory illness in June, 2012, in Jeddah, Saudi Arab

188 Adenoviruses can cause outbreaks of febrile respiratory illness in military trainees, but until 2007

189 ved association between O. cf. ovata blooms, respiratory illness in people, and detection of palytoxi

190 dle East respiratory syndrome," "coronavirus respiratory illness in Saudi Arabia," and "novel (beta)

191 f MERS-CoV infection, or someone with severe respiratory illness in the 14 days before the onset of i

192 tory disease in infants and a major cause of respiratory illness in the elderly.

193 tory disease in infants and a major cause of respiratory illness in the elderly.

194 cimens from patients in a recent outbreak of respiratory illness in the lower Hudson Valley, New York

195 D68 (EV-D68) caused a widespread outbreak of respiratory illness in the United States in 2014, predom

196 >/=9 years old with medically-attended acute respiratory illness in the US Influenza Vaccine Effectiv

197 >/=9 years old with medically-attended acute respiratory illness in the US Influenza Vaccine Effectiv

198 ignificantly associated with childhood lower respiratory illness in this population for several decad

199 causes acute, and occasionally fatal, lower respiratory illness in young infants, the elderly, and i

200 d to be associated with both mild and severe respiratory illness in Zambia.

201 We compared the viral etiology of respiratory illnesses in 2 groups: a cohort of 515 infan

202 linked to the severity and etiology of viral respiratory illnesses in early childhood.

203 annual basis and a long history of studying respiratory illnesses in households.

204 that face masks and hand hygiene may reduce respiratory illnesses in shared living settings and miti

205 We identified 179 cases of acute respiratory illness including 50 cases of radiographical

206 age hospitalized with any sign or symptom of respiratory illness (including suspected sepsis or apnea

207 preciation of their role in more-significant respiratory illnesses, including bronchiolitis in infanc

208 ngus that has been implicated in a number of respiratory illnesses, including HP.

209 a dimorphic fungus implicated in a number of respiratory illnesses, including HP.

210 human disease ranging from conjunctivitis to respiratory illnesses, including the 2009-10 A(H1N1)pdm0

211 Severe respiratory illness induced by either of these viruses i

212 Influenza A viruses cause the respiratory illness influenza, which can be mild to fata

213 he identification of multiple viruses during respiratory illness is increasing with advances in rapid

214 The global burden of pediatric severe respiratory illness is substantial, and influenza viruse

215 The role of human bocavirus (HBoV) in respiratory illness is uncertain.

216 The role of HBoV-1 in respiratory illness is unclear, owing to frequent detect

217 outcomes from mild conjunctivitis to severe respiratory illnesses, it is not clear where the HA of t

218 Lid swelling in the absence of recent upper respiratory illness, lacrimal gland focus, multiple orbi

219 asthma-like symptoms after early-life lower respiratory illness (LRI) caused by respiratory syncytia

220 ations for IHD- and medically attended acute respiratory illness (MAARI) (RR=1.42) were significantly

221 ed >/=6 months with medically attended acute respiratory illness (MAARI), including cough, with illne

222 veness (VE) against medically attended acute respiratory illness (MAARI).

223 Stronger surveillance for deaths due to respiratory illness may identify risk groups for targete

224 It usually presents as chronic respiratory illness mimicking interstitial lung diseases

225 fication was common among young infants with respiratory illness, most of whom were too young to be f

226 l ddAC had a cycle delayed (FN, n = 1; acute respiratory illness, n = 1; foot blisters, n = 1; perian

227 ly, there was no identified antecedent upper respiratory illness, nor was there a preceding traumatic

228 A first wave of respiratory illness occurred in US Army camps during Mar

229 Subjects with acute respiratory illness of </=7 days duration were enrolled

230 Patients with acute respiratory illnesses of </= 7 days' duration were enrol

231 Nasal swabs were collected at respiratory illness onset and every 7-10 days until illn

232 emerging paramyxovirus that can cause fatal respiratory illness or encephalitis in humans.

233 ive, population-based surveillance for acute respiratory illness or fever among inpatient and outpati

234 dical unit of a large UK hospital with acute respiratory illness or fever higher than 37.5 degrees C

235 Two-thirds of the patients had an antecedent respiratory illness or meningitis.

236 HBoV was not associated with the presence of respiratory illness or with specific respiratory symptom

237 est Cyanobacteria counts was associated with respiratory illness (OR = 1.37; 95% CI: 1.12, 1.67), ras

238 ples from 955 children with gastroenteritis, respiratory illness, or both, and found BuV DNA in three

239 contacts in a Jordanian hospital-associated respiratory illness outbreak in April 2012, resulting in

240 impact of PM2.5 on emergency room visits for respiratory illnesses (P = 0.001) but only at low concen

241 Of those infected there were 69 respiratory illnesses per 100 person-influenza-seasons c

242 of pregnant women in settings of unexplained respiratory illness potentially due to MERS-CoV.

243 ologic features and cause clinically similar respiratory illness predominantly in young children.

244 rile illness (malaria and dengue fever), and respiratory illnesses predominate.

245 aeroallergen sensitization and primary care respiratory illness presentations.

246 bs with multiple viruses detected changed as respiratory illnesses progressed from week to week, as d

247 because of impaired lung function or whether respiratory illness reduces lung function.

248 worsened most often with LDI, and many acute respiratory illnesses, regardless of etiology, were asso

249 influenza and influenza test-negative acute respiratory illness, respectively.

250 We performed a retrospective analysis of respiratory illness samples from longitudinal cohorts of

251 influenza-like illness (ILI) or severe acute respiratory illness (SARI) and from asymptomatic control

252 ness (ILI) or hospitalized with severe acute respiratory illness (SARI) and tested for influenza viru

253 ublic clinics for patients with severe acute respiratory illness (SARI) at 16 regional public hospita

254 nfluenza-like illness (ILI) and severe acute respiratory illness (SARI) at 4 healthcare facilities in

255 nfluenza-like illness (ILI) and severe acute respiratory illness (SARI) had oropharyngeal and nasopha

256 uring sentinel surveillance for severe acute respiratory illness (SARI) hospitalization conducted in

257 data from 4 years of pediatric severe acute respiratory illness (SARI) sentinel surveillance in Blan

258 Severe acute respiratory illness (SARI) surveillance began in Jingzho

259 lness (ILI) and inpatients with severe acute respiratory illness (SARI) were enrolled at 4 sentinel f

260 d to participate in a review of severe acute respiratory illness (SARI)-associated deaths identified

261 s for influenza-like illness or severe acute respiratory illness (SARI).

262 influenzalike illness (ILI) and severe acute respiratory illness (SARI).

263 for transmission of viruses causing febrile respiratory illness, such as influenza.

264 on can lead to more severe HRV-induced lower respiratory illnesses support a causal role for allergic

265 We used respiratory illness surveillance and HIV testing data ga

266 with influenza-like illness or severe acute respiratory illness symptoms identified by surveillance

267 Controls were subjects with acute respiratory illness testing negative for influenza.

268 longer periods, were more likely to develop respiratory illness than were other exposed groups.

269 city babies have different patterns of viral respiratory illnesses than babies who grow up in a more

270 Human influenza is a highly contagious acute respiratory illness that is responsible for significant

271 birth occurred during the course of an acute respiratory illness that was attributed to MERS-CoV on t

272 uenza, we developed the Above Local Elevated Respiratory Illness Threshold (ALERT) algorithm, a metho

273 viruses (HPIVs) are a common cause of acute respiratory illness throughout life.

274 isting surveillance program for severe acute respiratory illness to evaluate a new multiplex real-tim

275 surveillance by routine monitoring of acute respiratory illness to obtain data on circulating strain

276 nasal washing samples collected during acute respiratory illnesses, typed into group A and B, and seq

277 Respiratory illness was reported among humans and swine

278 accid myelitis and a sibling with only upper respiratory illness were both infected by identical ente

279 /=50 years who sought medical care for acute respiratory illness were enrolled.

280 Patients presenting with acute respiratory illness were prospectively enrolled during t

281 tients >/=45 years old presenting with acute respiratory illness were prospectively enrolled during t

282 Patients >/= 50 years old with acute respiratory illness were recruited for studies of influe

283 who fulfilled a broad syndromic criteria of respiratory illness were tested for B. pertussis infecti

284 A total of 532 subjects admitted for 556 respiratory illnesses were enrolled.

285 Symptomatic respiratory illnesses were laboratory-confirmed as influ

286 uenza among hospitalized patients with acute respiratory illness when influenza is circulating in a c

287 ng to the emergency department with an acute respiratory illness who met Centers for Disease Control

288 rs old and adults >/=50 years old with acute respiratory illness who participated in seasonal studies

289 seholds containing index patients with acute respiratory illness who tested positive for Yamagata- an

290 as defined as a person with an acute febrile respiratory illness who was positive for influenza A, bu

291 influenza virus recovered from patients with respiratory illness who were admitted to the major child

292 coronavirus (SARS-CoV) caused an acute human respiratory illness with high morbidity and mortality in

293 A confirmed case was defined as an acute respiratory illness with laboratory-confirmed pandemic H

294 nation histories between subjects with acute respiratory illness with positive real-time reverse tran

295 for MERS-CoV in patients with febrile and/or respiratory illness with recent travel to the Arabian Pe

296 ary shedding events are associated with mild respiratory illness with subsequent prolonged detection

297 global concern: the virus has caused severe respiratory illness, with 111 confirmed cases and 52 dea

298 9/11 and post-traumatic stress disorder and respiratory illness, with a correlation between prolonge

299 nfluenza viruses are a common cause of acute respiratory illness worldwide and generate a significant

300 t important viral cause of serious pediatric respiratory illness worldwide.