ライフサイエンスコーパス: ventilation

1 ire it for a short term (< 4 d of mechanical ventilation).

2 sociated with increased duration of stay and ventilation.

3 highly predictive of the need for mechanical ventilation.

4 e accuracies of 73% and 74% for ICU care and ventilation.

5 diagnosis, or treated with low tidal volume ventilation.

6 ding 75% of patients who required mechanical ventilation.

7 spitalized patients not requiring mechanical ventilation.

8 g vasopressors, hemodialysis, and mechanical ventilation.

9 tical care management and optimal mechanical ventilation.

10 also associated with use of low tidal volume ventilation.

11 lung disease patients undergoing mechanical ventilation.

12 nt for postoperative invasive or noninvasive ventilation.

13 l cannula, and noninvasive positive-pressure ventilation.

14 ally confirmed COVID-19 receiving mechanical ventilation.

15 end-expiratory pressure can guide mechanical ventilation.

16 optimize lung recruitment and homogeneity of ventilation.

17 ute respiratory failure requiring mechanical ventilation.

18 cleaning surfaces) and attend to masking and ventilation.

19 ute respiratory failure requiring mechanical ventilation.

20 with a difference in duration of mechanical ventilation.

21 d by a midwife with an LMA or with face-mask ventilation.

22 oderate certainty) compared with noninvasive ventilation.

23 of patients in need of impending mechanical ventilation.

24 rious interventions, most notably mechanical ventilation.

25 xygen including 12 (12%) invasive mechanical ventilation.

26 sal cannula or noninvasive positive-pressure ventilation.

27 nical ventilation than short-term mechanical ventilation.

28 with a daily wake-up call during mechanical ventilation.

29 l ventilation; or use of invasive mechanical ventilation.

30 were eligible after weaning from mechanical ventilation.

31 aphragmatic force associated with mechanical ventilation.

32 fied inspiratory breaths while on mechanical ventilation.

33 ulated and energy efficient homes may reduce ventilation.

34 ined as being alive and free from mechanical ventilation.

35 be extubated within 24 hours after start of ventilation.

36 ntilated COVID-19 patients require prolonged ventilation.

37 -2 infection, including 7 days of mechanical ventilation.

38 oncentration was higher with flow-controlled ventilation (1.1 +/- 0.04 vs 1.0 +/- 0.03; p = 0.039).

39 -1 6 hours after the onset of the mechanical ventilation, 1 and 10 days after extubation.

40 gs returned to baseline (pressure-controlled ventilation 10 cm H2O) for 4 hours.

41 days (9.3% versus 2.4%, P=0.006), prolonged ventilation (17.6% versus 4.8%, P<0.001), and operative

42 a chronic disease), 31% received mechanical ventilation, 19% had shock, and 588 (3.1%) died during t

43 enous thromboembolism (4 points), mechanical ventilation (2 points), lowest hemoglobin during hospita

44 to receive first either pressure-controlled ventilation 20 cm H2O for 2 hours (phase 2) or continuou

45 ys; p < 0.001), increased risk of mechanical ventilation (22.8% vs. 11.9%; adjusted odds ratio: 3.64;

46 nts also had the highest rates of mechanical ventilation (23.2%) and renal replacement therapy (6.6%)

47 espiratory mechanics inherently support lung ventilation, 3D MR Spirometry may open a new way to non-

48 In total, 175 patients received mechanical ventilation; 44.6% were female, 66.3% were Black, and th

49 , central venous catheters (86%), mechanical ventilation (59%), and high flow nasal cannula (46%).

50 re, 320 (12.2%) received invasive mechanical ventilation, 81 (3.2%) were treated with kidney replacem

51 +/-4.4) predicting 30% in-hospital survival; ventilation 94%, dialysis 56%.

52 Among ICU patients requiring mechanical ventilation, a strategy of stress ulcer prophylaxis with

53 MRI ventilation abnormalities were quantified as the ventila

54 lower odds of receiving invasive mechanical ventilation (adjusted generalized estimating equation od

55 n therapy, but not compared with noninvasive ventilation after extubation.

56 ed to <1 mg (65.2% vs 35.0%, P = 0.05), lung ventilation after injection (65.2% vs 35.0%, P = 0.05),

57 Enhanced ventilation also significantly lowered mixing ratios.

58 creased mortality and increased days free of ventilation among survivors.

59 16 infants, 5.4% underwent positive pressure ventilation and 16.0% had intensive treatment.

60 ions in comparators; 18% required mechanical ventilation and 21% died during follow-up (compared with

61 The peripheral lung showed reduced ventilation and a greater response to bronchodilator inh

62 esses, whereas RTN selectively controls lung ventilation and arterial Pco(2) stability.

63 Housing system (the combination of cage ventilation and bedding type), genetic background, time

64 nfants, use of epinephrine (adrenaline) when ventilation and compressions fail to stabilize the newbo

65 Increasing time to mechanical ventilation and high-flow nasal cannula use may be assoc

66 The effects on the length of mechanical ventilation and ICU stay were only significant for the p

67 nificantly shortens time spent on mechanical ventilation and in ICU, but this does not consistently t

68 and subsequent need for invasive mechanical ventilation and in-hospital mortality among patients adm

69 omes included receipt of invasive mechanical ventilation and in-hospital mortality.

70 as associated with higher risk of mechanical ventilation and mortality among patients hospitalized fo

71 n decreases the need for invasive mechanical ventilation and mortality among patients with chronic ob

72 o assess the association between noninvasive ventilation and outcomes.Measurements and Main Results:

73 sion that is likely due to abnormal alveolar ventilation and perfusion.

74 Ventilation and photolysis accounted for <50% and <0.1%

75 stress syndrome, followed by failure to wean ventilation and post-extracorporeal membrane oxygenation

76 o assess the association between noninvasive ventilation and subsequent need for invasive mechanical

77 VAH is a time-dependent increase in baseline ventilation and the hypoxic ventilatory response (HVR) o

78 roduces a time-dependent increase of resting ventilation and the hypoxic ventilatory response (HVR) t

79 edation has been shown to reduce the time on ventilation and the length of stay in the intensive care

80 DCNN ventilation images were segmented for ventilation and ventilation defects and were compared wi

81 l because of failure to wean from mechanical ventilation and who were receiving physical therapy as p

82 n with intensive care use (use of mechanical ventilation and/or admission to intensive care unit) and

83 Poor outcome was defined as invasive ventilation and/or death.

84 ry-confirmed botulism; 7 required mechanical ventilation, and 1 died.

85 ensive care, 26.4% had new positive-pressure ventilation, and 19.7% received vasopressors.

86 d (376 [78%]), 117 (31%) required mechanical ventilation, and 77 (20.5%) died by 28 days after diagno

87 mbulance, interhospital transfer, mechanical ventilation, and an emergency department triage score.

88 transient upper airway narrowing disrupting ventilation, and causing oxyhemoglobin desaturation and

89 ve care unit admission, intubated mechanical ventilation, and death) due to medically attended acute

90 ve care unit admission, intubated mechanical ventilation, and death) for adults of all ages.

91 s associated with encephalopathy, mechanical ventilation, and decreased probability of discharge home

92 ephalopathy, acute renal failure, mechanical ventilation, and discharge home compared across sodium l

93 ed for oxygen supplementation and mechanical ventilation, and in-hospital case fatality (hCFR) among

94 ay, need for intensive care unit, mechanical ventilation, and in-hospital mortality) were captured fr

95 e unit (ICU), new requirement for mechanical ventilation, and mortality.

96 pontaneous breathing trials, lung-protective ventilation, and neuromuscular blocking agents).

97 antine) and mitigation (hygiene, sanitation, ventilation, and social distancing) practices.

98 = 1.5, p < 0.001), including intubation and ventilation (AOR = 2.4, p < 0.001); and outpatient speci

99 ute respiratory failure requiring mechanical ventilation are unknown.

100 he effects of HIV on pulmonary perfusion and ventilation are unknown.

101 This strategy removes ventilation as the major constraint to exercise capacity

102 isk factors for pediatric difficult bag-mask ventilation as well as its association with adverse trac

103 A single application of aerophages prior to ventilation at one of two concentrations (~1010 plaque f

104 (39.0% if the patient was already receiving ventilation at randomization and 9.5% otherwise).

105 other patients requiring invasive mechanical ventilation at the authors' institution.

106 verturning conditions favoured abyssal ocean ventilation at the YD and marked an interval of Si cycle

107 Twenty-two patients required mechanical ventilation; at last follow-up, 16 were extubated.

108 is study was to test whether flow-controlled ventilation attenuates lung injury in an animal model of

109 ildren are frequently exposed to noninvasive ventilation before intubation.

110 Those who received noninvasive ventilation before invasive mechanical ventilation were

111 transmission is dominant, with proximity and ventilation being key determinants of transmission risk.

112 s who were anticipated to require mechanical ventilation beyond the day after recruitment in the ICU

113 3D Magnetic Resonance (MR) Spirometry, local ventilation can be assessed by MRI anywhere in the lung

114 It is uncertain whether invasive ventilation can use lower positive end-expiratory pressu

115 In contrast, at isotime, minute ventilation, cardiac output and systemic oxygen delivery

116 nd weaker winds lead to stagnant conditions (ventilation coefficient lower by a factor of ~4) thereby

117 h over- and under-assistance with mechanical ventilation, considering the patients' respiratory drive

118 on (intervention group) or volume-controlled ventilation (control group) with identical tidal volume

119 that exposure can be mitigated by increasing ventilation, damp cloth cleaning, and minimizing the use

120 Rationale: Noninvasive ventilation decreases the need for invasive mechanical v

121 % (P < 0.0001), lumen area (P < 0.0001), and ventilation defect percent (P = 0.03) than those with <1

122 Our aim was to assess the ventilation defect percent (VDP) on hyperpolarized heliu

123 ilation abnormalities were quantified as the ventilation defect percent.Measurements and Main Results

124 ion MRI was highly correlated with (3)He MRI ventilation defect percentage (r(S) = 0.83, P < .001, me

125 The ventilation defect percentage for DL ventilation MRI was

126 .001) and (3)He MRI (r(S) = -0.61, P < .001) ventilation defect percentage were correlated with the f

127 on images were segmented for ventilation and ventilation defects and were compared with noble gas MRI

128 it imaging for PE because of either worsened ventilation defects on ventilation-perfusion scanning (V

129 (129)Xe MRI is feasible and can demonstrate ventilation defects that relate to and predict clinical

130 and was related to airway wall thickness and ventilation defects.

131 al cannula and noninvasive positive-pressure ventilation do not increase aerosol generation from the

132 LMA) has potential advantages over face-mask ventilation during neonatal resuscitation in low-income

133 tage of peak oxygen consumption (peakVO(2)), ventilation efficiency (VE/VCO(2) ratio), and dyspnea in

134 Compared with control, flow-controlled ventilation elevated PaO2 (154 +/- 21 vs 105 +/- 9 torr;

135 Flow-controlled ventilation enhances lung aeration in the dependent lung

136 use of clean fuels, with addition of better ventilation facilities.

137 In the noninvasive ventilation failure group, higher FIO2 before tracheal i

138 olling for baseline differences, noninvasive ventilation failure was not independently associated wit

139 Only 1 patient who needed mechanical ventilation for severe COVID-19 disease died of bacteria

140 e ICU length of stay, vasopressor-free days, ventilation-free days, and the proportion of patients re

141 in ICU free-days, vasopressor-free days, and ventilation-free days.

142 Coma-, delirium-, and invasive mechanical ventilation-free patients admitted to the ICU were inclu

143 Fractional ventilation (FV) was calculated from acquired data in no

144 rs +/- 19; 52% men) with invasive mechanical ventilation had one barotrauma event (0.5%; 95% CI: 0%,

145 ing electrical stimulation during mechanical ventilation has been proposed to attenuate ventilator-in

146 was to assess the extent to which increased ventilation heterogeneity may contribute to ventilator-i

147 malized ventilation (IQR(N); as a measure of ventilation heterogeneity) was calculated.

148 rone positioning, high-frequency oscillatory ventilation (HFOV), and extracorporeal membrane oxygenat

149 cannula oxygen (n = 55; 8%), and noninvasive ventilation + high-flow nasal cannula oxygen (n = 64; 10

150 racteristics and outcomes (death, mechanical ventilation, hospital discharge) for these groups, as we

151 DCNN ventilation images were segmented for ventilation and ve

152 s (CI) for predictors of invasive mechanical ventilation (IMV) and death.

153 le: Patients who receive invasive mechanical ventilation (IMV) are usually exposed to opioids as part

154 tress syndrome requiring invasive mechanical ventilation (IMV).

155 spital death in 1302 (17.1%), and mechanical ventilation in 1602 (21.1%).

156 complications included prolonged mechanical ventilation in 2 of 5 patients (40%), and renal insuffic

157 ung disease requiring noninvasive mechanical ventilation in 3 patients, as well as recurrent episodes

158 ung injury during high-frequency oscillatory ventilation in adults compared with neonates on the basi

159 ssociated with longer duration of mechanical ventilation in survivors (hazard ratio, 0.64; 95% CI, 0.

160 pital, and 3 continued to receive mechanical ventilation in the ICU.

161 trategies for optimizing invasive mechanical ventilation in this patient population.

162 ious effects of positive-pressure mechanical ventilation in this patient population.

163 gestational age 28 weeks) required invasive ventilation, in contrast to 95% of postpartum women (med

164 Flow-controlled ventilation increased normally aerated (24% +/- 4% vs 10

165 h holding for quantitative image analysis of ventilation inhomogeneity and hyperinflation in CF compa

166 Oxygenation and ventilation inhomogeneity improved but arterial CO2 incr

167 flations for initiation of positive-pressure ventilation, initial oxygen concentrations for initiatio

168 Flow-controlled ventilation (intervention group) or volume-controlled ve

169 We also assessed the rates of ventilation, intubation, and dialysis, and looked for po

170 V(N)), and interquartile range of normalized ventilation (IQR(N); as a measure of ventilation heterog

171 al cannula and noninvasive positive-pressure ventilation is a concern for healthcare workers during t

172 ingle-leg knee-extensor exercise (KE), where ventilation is assumed to be submaximal.

173 ung injury during high-frequency oscillatory ventilation is enhanced at frequencies above lung corner

174 The presence of difficult bag-mask ventilation is independently associated with an increase

175 Ventilation is inherently a dynamic process.

176 Difficult bag-mask ventilation is more commonly reported with increasing ag

177 t may perhaps improve survival if mechanical ventilation is pursued in this set of patients.

178 Difficult bag-mask ventilation is reported in approximately one in 10 PICU

179 l that dissolved O(2) introduction by burrow ventilation is the major driver of archaeal community st

180 Face-mask ventilation is the most common resuscitation method for

181 Mechanical ventilation is the standard treatment when volitional br

182 (Covid-19) who are not receiving mechanical ventilation is unclear.

183 y, adverse reactions, duration of mechanical ventilation, length of ICU and hospital stays, and doses

184 es; and shortened the duration of mechanical ventilation, length of intensive care unit stay and hosp

185 rning [DL] ventilation MRI)-derived specific ventilation maps as a surrogate of noble gas MRI and to

186 nd increased duration of invasive mechanical ventilation (median 4 days [interquartile range, 2-6 d]

187 for patients receiving prolonged mechanical ventilation.Methods: We performed a focused ethnographic

188 ctively for cardiac and liver injury, shock, ventilation, mortality, and viral clearance.

189 Both DL ventilation MRI (r(S) = -0.51, P < .001) and (3)He MRI (

190 The mean DSC for DL ventilation MRI and (3)He MRI ventilation was 0.91 +/- 0

191 The ventilation defect percentage for DL ventilation MRI was highly correlated with (3)He MRI ven

192 from free-breathing MRI (deep learning [DL] ventilation MRI)-derived specific ventilation maps as a

193 standard oxygen (n = 245, 38%), noninvasive ventilation (n = 285; 44%), high-flow nasal cannula oxyg

194 iation of home noninvasive positive pressure ventilation (NIPPV) with outcomes in chronic obstructive

195 Due to the expanding use of non-invasive ventilation (NIV) in amyotrophic lateral sclerosis (ALS)

196 ity was reflected in the use of non-invasive ventilation (NIV), simple and exchange transfusions, and

197 ha deletion in the CNS or NTS did not affect ventilation, nor the acute HVR (10-15 min hypoxic exposu

198 06 patients, in-hospital death or mechanical ventilation occurred in 2109 (27.7%), in-hospital death

199 lculation back to the 1980s reveals that the ventilation occurred previously along the periphery of t

200 o, 1.00; 95% CI, 0.95-1.07), lung-protective ventilation (odds ratio, 1.07, 95% CI, 0.90-1.26), or ne

201 her risks of in-hospital death or mechanical ventilation (odds ratio, 1.28 [95% CI, 1.09-1.51], 1.57

202 Mechanical ventilation (odds ratio, 3.25; 95% CI, 2.52-4.19; p < 0.

203 Ventilation of carbon stored in the deep ocean is though

204 Ventilation of the intermediate-depth North Pacific trac

205 is recorded from ~547 Ma onwards, with full ventilation of the outer ramp by ~542 Ma.

206 By turning the mechanical ventilation on and off, it was demonstrated that formald

207 re, is an established composite that equates ventilation on day 28 to death.

208 ence of indoor coal combustion and household ventilation on outdoor air pollution has not been assess

209 d weak respiratory efforts during mechanical ventilation on patient outcome brings attention to the r

210 Most patients requiring mechanical ventilation only require it for a short term (< 4 d of m

211 xygenation, but there were no differences in ventilation or cardiac output.

212 The primary outcome was mechanical ventilation or death by day 28.

213 e placebo group (hazard ratio for mechanical ventilation or death, 0.56; 95% CI, 0.33 to 0.97; P = 0.

214 ygen; and 6.7% receiving invasive mechanical ventilation or extracorporeal membrane oxygenation), 433

215 sitive pressure; 11.5% receiving noninvasive ventilation or nasal high-flow oxygen; and 6.7% receivin

216 not compromised by its lack of inclusion of ventilation or other comorbidity data.

217 ed in patients requiring invasive mechanical ventilation or patients who evolved with in-hospital mor

218 tage of patients who had received mechanical ventilation or who had died by day 28 was 12.0% (95% con

219 s was a significant predictor for mechanical ventilation (OR 1.89; 95% CI 1.11-3.23) while older age

220 ensive care unit (ICU) admission, mechanical ventilation, or death.

221 al static compliance, duration of mechanical ventilation, or ICU length of stay by timing of intubati

222 scalation to intensive care unit, mechanical ventilation, or in-hospital all-cause mortality) was com

223 asal cannula; use of non-invasive mechanical ventilation; or use of invasive mechanical ventilation.

224 free days (days alive and free of mechanical ventilation) over 28 days.

225 though 27% of our patients needed mechanical ventilation, over half were discharged home by the end o

226 atients without perceived difficult bag-mask ventilation (p < 0.001).

227 rate, blood pressure, oxygen saturation, and ventilation parameters, in inpatients undergoing simulta

228 the following: D-dimer, CTPA, scintillation ventilation perfusion lung scanning or formal pulmonary

229 The ventilation-perfusion mismatch was elevated (median, 34%

230 ined by a combination of pulmonary embolism, ventilation-perfusion mismatching in the noninjured lung

231 se of either worsened ventilation defects on ventilation-perfusion scanning (VQ) or increased motion

232 embolic pulmonary hypertension (CTEPH), with ventilation-perfusion scanning and echocardiography bein

233 gs to improve lung function, oxygenation and ventilation/perfusion matching, without impairment of he

234 d computed tomography pulmonary angiography, ventilation/perfusion scanning, pulmonary angiography, a

235 Although ventilation/perfusion scintigraphy has been supplanted b

236 membrane oxygenation, compared with current ventilation practice that employs tidal ventilation with

237 ical course or characteristics of mechanical ventilation predict persistent respiratory morbidity at

238 embolism, postresuscitation oxygenation and ventilation, prophylactic antibiotics after resuscitatio

239 mg, albumin dissolvent, post-injection lung ventilation, radiologically solid nodules, and anatomic

240 ced maximum metabolic rate) and increases in ventilation rates to compensate for decreasing oxygen le

241 mining changes in hypoxia tolerance (pCrit), ventilation rates, and metabolic rates, with impacts on

242 ng cognitive tasks when determining building ventilation rates.

243 Ventilatory efficiency (minute ventilation required to eliminate carbon dioxide, VE/VCO

244 body mass index, comorbidities, and baseline ventilation requirement 48 hours from admission, and in

245 l networks (DCNNs) to generate synthetic MRI ventilation scans from free-breathing MRI (deep learning

246 the other phase for 2 hours; during phase 4 ventilation settings returned to baseline (pressure-cont

247 y guide selection of personalized mechanical ventilation settings.

248 U) patients or patients requiring mechanical ventilation showed a lower proportion of medium- and low

249 and shorter duration and need for mechanical ventilation, showing clinical benefit associated with ea

250 High-frequency oscillatory ventilation simulations demonstrated increasing heteroge

251 (63.6%, 42.5%, and 21.1% for lung-protective ventilation, spontaneous breathing trials, and neuromusc

252 dmission, and in a second matching analysis, ventilation status at day 0.

253 in part to a lack of standardized mechanical ventilation strategies aimed at further minimizing venti

254 portant questions not only about the optimal ventilation strategies for patients receiving extracorpo

255 Protective ventilation strategies for the injured lung currently re

256 e paradigm to see if any specific mechanical ventilation strategies might improve in-hospital mortali

257 The same mechanical-ventilation strategies were used in both groups.

258 tially be mitigated by ultra-lung-protective ventilation strategies when gas exchange is sufficiently

259 hether a continuous positive airway pressure ventilation strategy mitigates ventilator-induced lung i

260 harge a priori defined as one of: mechanical ventilation, supplemental oxygen, bronchodilators or ste

261 tions of vasoactive-inotropic and mechanical ventilation support were 3.0 days (2.0-6.0 d) and 8.0 da

262 -scale episodes of reorganized Pacific Ocean ventilation synchronous with rapid Cordilleran Ice Sheet

263 in the setting of prolonged acute mechanical ventilation than short-term mechanical ventilation.

264 If up to 5% receive positive-pressure ventilation, this evidence evaluation is relevant to mor

265 gned neonates who required positive-pressure ventilation to be treated by a midwife with an LMA or wi

266 -base homeostasis are maintained by matching ventilation to metabolic needs; however, current pacing

267 nts requiring more than 2 days of mechanical ventilation underwent HLA genotyping, and were followed

268 The outcomes were positive pressure ventilation use and intensive treatment (admission to in

269 a and severe sepsis.Conclusions: Noninvasive ventilation use during asthma exacerbation was associate

270 intensive care unit and/or positive pressure ventilation use).

271 ovement include use of targeted tidal volume ventilation, use of caffeine therapy, oxygen therapy pos

272 of patients with reported difficult bag-mask ventilation versus 19.8% in patients without perceived d

273 Adults requiring invasive mechanical ventilation via endotracheal tube for acute respiratory

274 ack resistance and elastance during Variable Ventilation (VV), in which frequency and tidal volume va

275 ean DSC for DL ventilation MRI and (3)He MRI ventilation was 0.91 +/- 0.07.

276 Across all models, the use of noninvasive ventilation was associated with a lower odds of receivin

277 Use of ventilation was associated with lower all-cause mortalit

278 After semiautomated segmentation, fractional ventilation was calculated from MRI signal intensity (FV

279 The duration of mechanical ventilation was more often longer (>6 days) in those wit

280 association of BMI with death or mechanical ventilation was strongest in adults <=50 years, intermed

281 Need for invasive mechanical ventilation was the primary endpoint.

282 ievable in both cohorts when oxygenation and ventilation were allowed to vary within prespecified ran

283 asive ventilation before invasive mechanical ventilation were more likely to have comorbid pneumonia

284 or hospitalization, ICU care, and mechanical ventilation were predicted with a validation accuracy of

285 aO(2):FiO(2) ratio, 151; 32.5% on mechanical ventilation) were evaluated.

286 rotrauma associated with invasive mechanical ventilation, were compared with patients without COVID-1

287 nd improve knowledge retention in mechanical ventilation when compared with a clinical rotation and w

288 erstitial lung disease-associated mechanical ventilation when viewed through an acute respiratory dis

289 Ventilation with a cuffless laryngeal mask airway (LMA)

290 on had no effect on the increase in normoxic ventilation with acclimatization to CH, indicating this

291 After receiving pressure-controlled ventilation with driving pressure of 10 cm H2O for 1 hou

292 Measurement of regional lung ventilation with hyperpolarized (129)Xe magnetic resonan

293 rent ventilation practice that employs tidal ventilation with limited driving pressure.

294 nts undergoing major surgery, intraoperative ventilation with low tidal volume compared with conventi

295 t to best: death, cardiac arrest, mechanical ventilation with mechanical circulatory support, mechani

296 h mechanical circulatory support, mechanical ventilation with vasopressors/inotrope support, mechanic

297 Patients requiring invasive mechanical ventilation within 24 hours of ICU admission were follow

298 ded children without exposure to noninvasive ventilation within 6 hours before tracheal intubation.

299 th vasopressors/inotrope support, mechanical ventilation without hemodynamic support, and hospitaliza

300 from 32% to 18% during controlled mechanical ventilation, without increasing hyperinflation.Conclusio