コーパス検索結果 (1語後でソート)
通し番号をクリックするとPubMedの該当ページを表示します
1 ventilation; and 22.5% for those who failed noninvasive ventilation.
2 None of the patients received noninvasive ventilation.
3 ved after 2 hrs of total face mask-delivered noninvasive ventilation.
4 d criteria for extubation, reintubation, and noninvasive ventilation.
5 milar for patients treated with invasive and noninvasive ventilation.
6 echanical ventilation, 12,480 (19%) received noninvasive ventilation.
7 c obstructive pulmonary disease treated with noninvasive ventilation.
8 core, including 91 of 180 (51%) who received noninvasive ventilation.
9 re and respiratory acidosis nonresponsive to noninvasive ventilation.
10 etween the two groups of patients undergoing noninvasive ventilation (11.7% for CPAP and 11.1% for NI
11 mortality was 7.4% for patients treated with noninvasive ventilation; 16.1% for those treated with in
14 with an endotracheal tube, tracheostomy, and noninvasive ventilation, 8%, 39%, and 53% were mobilized
17 their exact role needs confirmation: one is noninvasive ventilation after extubation in high-risk or
18 rs, weaning duration, adverse events, use of noninvasive ventilation after extubation, successful wea
19 se exacerbation including 27.7% who received noninvasive ventilation and 45.5% who received invasive
21 vitamin D, respiratory management including noninvasive ventilation and diaphragmatic pacing, secret
22 etermine the relationship between receipt of noninvasive ventilation and outcomes for patients with p
23 primary end point for the comparison between noninvasive ventilation and standard oxygen therapy was
24 that increasing experience favors the use of noninvasive ventilation and was associated with a strong
25 e the dynamic behavior of pressure-supported noninvasive ventilation, and confirmed the predicted beh
26 ing and flushing liquid waste, bronchoscopy, noninvasive ventilation, and nebulized medication admini
27 ying sleep-disordered breathing triggered by noninvasive ventilation, and optimizing noninvasive vent
28 ant, high-frequency oscillatory ventilation, noninvasive ventilation, and use of extracorporeal membr
32 significantly higher in patients who failed noninvasive ventilation as compared with those who succe
36 hirty-seven patients, nine of whom underwent noninvasive ventilation at the time of extracorporeal me
38 determine the relationship between hospital noninvasive ventilation caseload and outcomes among pati
39 h hypoxemic acute respiratory failure, early noninvasive ventilation compared with oxygen therapy alo
40 ort study of patients undergoing invasive or noninvasive ventilation, conducted during 4 consecutive
42 atient selection and timing of initiation of noninvasive ventilation could lead to less variability i
46 t with high-flow oxygen, standard oxygen, or noninvasive ventilation did not result in significantly
47 Additional studies are required to evaluate noninvasive ventilation efficacy in the wards compared w
48 pulmonary disease exacerbation treated with noninvasive ventilation; even hospitals with low noninva
49 ls, high-volume hospitals did not have lower noninvasive ventilation failure (odds ratio quartile 4 v
50 olume was not related to outcomes, including noninvasive ventilation failure (p = 0.87), in-hospital
51 nts should be monitored closely for signs of noninvasive ventilation failure and promptly intubated b
52 also highlighting the risks associated with noninvasive ventilation failure and the need to be cauti
53 dal volume was independently associated with noninvasive ventilation failure in multivariate analysis
55 ith that of invasive mechanical ventilation; noninvasive ventilation failure was associated with the
57 tors that were independently associated with noninvasive ventilation failure were Simplified Acute Ph
58 ve 9.5 mL/kg predicted body weight predicted noninvasive ventilation failure with a sensitivity of 82
62 propensity score-matched analyses, receiving noninvasive ventilation first was associated with a sign
63 iteria were applied: 4,804 (31.7%) received "noninvasive ventilation first," whereas 10,221 (67.5%) r
64 ew the strong evidence supporting the use of noninvasive ventilation for acute respiratory failure to
65 Weaker evidence supports consideration of noninvasive ventilation for chronic obstructive pulmonar
66 al volume can be difficult to achieve during noninvasive ventilation for de novo acute hypoxemic resp
67 chieve in the majority of patients receiving noninvasive ventilation for de novo acute hypoxemic resp
69 o 86%), with a marked increase in the use of noninvasive ventilation (from 18% to 49%) and a decrease
70 patients overall (41.4%), 73 (38.2%) in the noninvasive ventilation group and 82 (44.8%) in the oxyg
71 s 9 L/min (interquartile range, 5-15) in the noninvasive ventilation group and 9 L/min (interquartile
73 with a reduction in mortality (12.6% in the noninvasive ventilation group vs 17.8% in the control ar
74 ation, 46 deaths (24.1%) had occurred in the noninvasive ventilation group vs 50 (27.3%) in the oxyge
75 e standard group, and 50% (55 of 110) in the noninvasive-ventilation group (P=0.18 for all comparison
76 the standard-oxygen group and 19+/-12 in the noninvasive-ventilation group; P=0.02 for all comparison
77 ed analysis, patients initially treated with noninvasive ventilation had a 41% lower risk of death co
82 and 1) the proportion of patients receiving noninvasive ventilation (highest vs lowest case-volume t
84 his comprehensive metaanalysis suggests that noninvasive ventilation improves survival in acute care
86 analysis of a randomized controlled trial of noninvasive ventilation in critically ill immunocompromi
89 l care (i.e., conventional oxygen therapy or noninvasive ventilation) in adults with respiratory fail
90 evaluated the outcomes of patients receiving noninvasive ventilation including long-term follow-up.
91 ents with acute cardiogenic pulmonary edema, noninvasive ventilation induces a more rapid improvement
94 uld be lost in some subgroups of patients if noninvasive ventilation is applied late as a rescue trea
98 ategories, including respiratory physiology, noninvasive ventilation, lung protective ventilation, we
100 dies with unclear methodology, comparing two noninvasive ventilation modalities, or in palliative set
101 Patients were randomly assigned to early noninvasive ventilation (n = 191) or oxygen therapy alon
102 mechanical ventilation after treatment with noninvasive ventilation needs further investigation.
104 ive pulmonary disease (COPD) requiring acute noninvasive ventilation (NIV) are poor and there are few
112 A total of 33 patients were treated with noninvasive ventilation (NIV), of which 21 avoided intub
116 three times higher in patients treated with noninvasive ventilation-only than in patients treated wi
117 O2 removal was 12% (95% CI, 2.5-31.2) and in noninvasive ventilation-only was 33% (95% CI, 14.6-57.0)
118 gned to lung-protective ventilation required noninvasive ventilation or intubation for acute respirat
119 -3.7 to 3.8 days), or need for mechanical or noninvasive ventilation (OR 1.03; 95% CI 0.70-1.51).
121 -year survival rate of patients treated with noninvasive ventilation outside the ICU for acute respir
122 rm birth, high illness severity, tracheal or noninvasive ventilation, parental absence and use of con
123 ntilation-only than in patients treated with noninvasive ventilation-plus-extracorporeal CO2 removal
124 Twenty-five patients were included in the noninvasive ventilation-plus-extracorporeal CO2 removal
129 We conducted a study to determine whether noninvasive ventilation reduces mortality and whether th
130 tients with concomitant respiratory failure, noninvasive ventilation represents a promising treatment
131 nvasive ventilation group received the first noninvasive ventilation session immediately after random
133 ange) expired tidal volume averaged over all noninvasive ventilation sessions (mean expired tidal vol
135 occurred and sleep quality was better during noninvasive ventilation sessions than during spontaneous
138 g an acute exacerbation of COPD, adding home noninvasive ventilation to home oxygen therapy prolonged
139 ompare the outcomes of patients treated with noninvasive ventilation to those treated with invasive m
142 eumonia who received mechanical ventilation, noninvasive ventilation use was not associated with a re
143 t for unmeasured confounding associated with noninvasive ventilation use, an instrumental variable wa
144 =0.046) and 2.50 (95% CI, 1.31 to 4.78) with noninvasive ventilation versus high-flow oxygen (P=0.006
146 nvasive ventilation; even hospitals with low noninvasive ventilation volume are able to successfully
147 ort study suggest that hospitals with higher noninvasive ventilation volume do not achieve better out
150 lmonary disease exacerbation, the receipt of noninvasive ventilation was associated with a lower risk
152 As compared with standard oxygen therapy, noninvasive ventilation was associated with greater mean
154 al was added to noninvasive ventilation when noninvasive ventilation was at risk of failure (arterial
155 ed that, among marginal patients, receipt of noninvasive ventilation was not significantly associated
157 ion were required in 38 patients (35.8%) and noninvasive ventilation was required in 17 patients (16.
162 Extracorporeal CO2 removal was added to noninvasive ventilation when noninvasive ventilation was
163 Patients were randomly assigned to receive noninvasive ventilation with either an ICU ventilators (
164 To compare outcomes of children receiving noninvasive ventilation with those receiving invasive ve
165 as been used as a novel interface to deliver noninvasive ventilation without applying direct pressure
WebLSDに未収録の専門用語(用法)は "新規対訳" から投稿できます。