ライフサイエンスコーパス: plateau pressure

1 were independently associated with elevated plateau pressure.

2 each independently associated with elevated plateau pressure.

3 lness may decrease the incidence of elevated plateau pressure.

4 ressure was related to barotrauma, including plateau pressure.

5 e reached after 10 s of decay was termed the plateau pressure.

6 H2O in supine obese patients; p < 0.001) and plateau pressure (15.6 [14-17] vs 22 [18-24] cm H2O in s

7 al volume (1A) and limitation of inspiratory plateau pressure (1B) for acute respiratory distress syn

8 t all the obese patients, without increasing plateau pressure (24 [19-25] vs 22 [18-24] cm H2O at zer

9 /- 1.1 vs. 9.8 +/- 1.5 mL/kg; p < .0001) and plateau pressure (27.5 +/- 6.4 vs. 33.8 +/- 8.9 cm H2O;

10 e eucapnic group showed significantly higher plateau pressures (27.0 +/- 2.5 versus 20.9 +/- 3.0; p =

11 (76 +/- 7 to 53 +/- 6 cm H2O; p<.001) and in plateau pressure (28 +/- 2 to 18 +/- 3 cm H2O; p<.001),

12 6) were mechanically ventilated to the same plateau pressure (30-32 cm H2O) with high-strain (VT = 1

13 .3 mL/kg, respectively (p < .001), with mean plateau pressure = 30.6 and 24.9 cm H2O (3.3 kPa), respe

14 positive end-expiratory pressure, 10 cm H2O; plateau pressure, 30 cm H2O) while receiving intravenous

15 +/- 4 cm H2O), but a much smaller change in plateau pressure (31 +/- 3 to 29 +/- 3 cm H2O).

16 The difference between plateau pressure and auto-PEEP decreased between the ear

17 low auto-PEEP and a large difference between plateau pressure and auto-PEEP was only seen after expir

18 verity of lung injury, this group had higher plateau pressure and more excessive spontaneous breathin

19 nd either driving pressure, tidal volume, or plateau pressure and positive end-expiratory pressure, V

20 ressure, which is the difference between the plateau pressure and the level of positive end-expirator

21 Pre and Post plateau pressures and peak airway pressures were similar

22 01), even in patients receiving "protective" plateau pressures and VT (relative risk, 1.36; 95% CI, 1

23 Peak pressure, plateau pressure, and auto-PEEP were measured at an earl

24 al volume, positive end-expiratory pressure, plateau pressure, and driving pressure evaluated at 24 h

25 ume, respiratory rate, mean airway pressure, plateau pressure, and hemodynamic variables were recorde

26 Peak airway pressure, plateau pressure, and internal lung pressure were minima

27 based on patient's age, PaO2/FIO2 ratio, and plateau pressure at 24 hours after acute respiratory dis

28 Assessment of respiratory mechanics included plateau pressure, auto-positive end-expiratory pressure,

29 (6 versus 12 ml/kg), baseline PEEP, baseline plateau pressure, baseline tidal volume, Acute Physiolog

30 ad lower Pa(o(2))/Fi(o(2)) ratio, had higher plateau pressure, but also had a lower ICU mortality rat

31 d on the values of age, PaO2/FIO2 ratio, and plateau pressure calculated at 24 hours on protective ve

32 We identified a plateau pressure cut-off value of 29 cm H2O, above which

33 H(2)O vs. 8.6 cm H(2)O; p < 0.0001), whereas plateau pressures did not differ.

34 cable pulmonary mechanical concepts, such as plateau pressures, driving pressure, transpulmonary pres

35 tory pressure levels and significantly lower plateau pressures during extracorporeal membrane oxygena

36 (2))/FI(O(2)), and decreased end-inspiratory plateau pressure from 16.6 +/- 1.0 to 11.9 +/- 0.5 cm H(

37 on from 7.8 +/- 1.5 to 5.2 +/- 1.1 L/min and plateau pressure from 25 +/- 4 to 21 +/- 3 cm H2O and ra

38 racorporeal membrane oxygenation initiation, plateau pressure greater than 30 cm H2O before extracorp

39 % of patients with FIO2 greater than 40% and plateau pressure greater than 30 cm H2O received low tid

40 ients with plateau pressure less than 30 and plateau pressure greater than or equal to 30 with those

41 tic regression model for predicting elevated plateau pressure had an area under the receiving operato

42 There was no difference in plateau pressures, hemodynamic variables, or survival be

43 entilation with lower tidal volume and lower plateau pressure improves mortality in patients with acu

44 ought to determine the incidence of elevated plateau pressure in acute lung injury /acute respiratory

45 determine the factors that predict elevated plateau pressure in these patients.

46 The plateau pressure increased significantly from 4:00 P.M.

47 entilation and limitation of end-inspiratory plateau pressure is important in the management of ARDS

48 rotocol recommends limiting tidal volume and plateau pressure; it also recommends increasing respirat

49 When we cross tabulated patients with plateau pressure less than 30 and plateau pressure great

50 rol tidal volume to 5-7 mL/kg, maintaining a plateau pressure less than 30 cm H2O.

51 predicted body weight and an end-inspiratory plateau-pressure limit of 30 cm of water, clinical outco

52 volume 5-8 mL/kg ideal body weight, to keep plateau pressure < 30 cm H2O (4.0 kPa).

53 ody weight) and lower inspiratory pressures (plateau pressure < 30 cm H2O) (moderate confidence in ef

54 volumes > or =10 mL/kg body weight; 2) keep plateau pressure < or =30 cm H2O, arterial pH at 7.30 to

55 sitive end-expiratory and/or end-inspiratory plateau pressure may be appropriate for one patient but

56 raprotective ventilation strategy minimizing plateau pressure may be required to improve outcome.

57 pressure (PEEP), respiratory rate (RR), and plateau pressure minus PEEP (Delta).

58 The driving pressure (plateau pressure minus positive end-expiratory pressure)

59 ight (based on patient gender and height), a plateau pressure of >30 cm H2O, and a peak airway pressu

60 d-expiratory positive pressure titrated to a plateau pressure of 28-30 cm H2O.

61 nd-expiratory pressure adjusted to achieve a plateau pressure of 30 cm H(2)O) lung volumes.

62 Individual sighs (2 x 10 s at inspiratory plateau pressure of 30 cm H2O) largely restored normal a

63 e end-expiratory pressure was increased to a plateau pressure of 30 cm H2O, and end-expiratory occlus

64 ited to less than 5-7 cc/kg per breath and a plateau pressure of 30 cm of water or less provides the

65 The plateau pressures of hydrogenation were substantially hi

66 ients in our study, 288 (20.6%) had elevated plateau pressure on day 1.

67 15 cm H2O [interquartile range, 13-15]), the plateau pressure - positive end-expiratory pressure diff

68 nformation on airway resistance (Raw), final plateau pressure (Pp), and peripheral lung compliance (C

69 usted to maintain a constant end-inspiratory plateau pressure (Pplat) of about 25 cm H2O in both grou

70 riving pressure greater than or equal to 19, plateau pressure provided a slightly better prediction o

71 based on mechanical parameters, such as the plateau pressure, respiratory system compliance, or tran

72 al volume (1B) and limitation of inspiratory plateau pressure strategy (1C) for acute lung injury (AL

73 rotocol, noncompliance with tidal volume and plateau pressure targets was associated with significant

74 lower tidal volume ventilation often have a plateau pressure that exceeds Acute Respiratory Distress

75 etween mechanical ventilation settings (i.e. plateau pressure, tidal volume, and positive end-expirat

76 ysis, increasing values of age, lactate, and plateau pressure under ECMO were associated with death.

77 kg ideal body weight, reduced if inspiratory plateau pressure was > 55 cm H2O (7.3 kPa).

78 kg +/- 1.8 mL/kg predicted body weight, mean plateau pressure was 27 cm H2O +/- 6 cm H2O, and mean po

79 Plateau pressure was measured in 40.1% (95% CI, 38.2-42.

80 Plateau pressure was slightly better than driving pressu

81 s syndrome developed (PaO2/Fio2 ratio <200), plateau pressures were limited to <35 cm H2O.

82 cts; b) the differences in tidal volumes and plateau pressures were modest; or c) reduced tidal volum

83 reased significantly, except for inspiratory plateau pressure, which was high at baseline.