ライフサイエンスコーパス: high-frequency oscillatory ventilation

1 f 6 mL/kg, PEEP set 2 cm H2O > Pflex); or d) high-frequency oscillatory ventilation.

2 s which enhance lung recruitment, especially high-frequency oscillatory ventilation.

3 l as extracorporeal membrane oxygenation and high-frequency oscillatory ventilation.

4 +/- 10.3 to 34.0 +/- 6.7 cm H2O, p < .05) on high-frequency oscillatory ventilation.

5 tion in acute lung injury when combined with high-frequency oscillatory ventilation.

6 ed outcomes for pediatric patients receiving high-frequency oscillatory ventilation.

7 onal ventilation preceding the initiation of high-frequency oscillatory ventilation.

8 uous distending pressure optimization during high-frequency oscillatory ventilation.

9 The rabbits were ventilated with high-frequency oscillatory ventilation.

10 monitoring right ventricular function during high-frequency oscillatory ventilation.

11 h acute respiratory distress syndrome during high-frequency oscillatory ventilation.

12 Tidal volumes are not uniformly small during high-frequency oscillatory ventilation.

13 s of measuring tidal volume during simulated high-frequency oscillatory ventilation.

14 pable of tracking lung volume changes during high-frequency oscillatory ventilation.

15 es and specific components of a protocol for high-frequency oscillatory ventilation.

16 patients with severe ARDS who are undergoing high-frequency oscillatory ventilation.

17 h group to receive intermittent mandatory or high-frequency oscillatory ventilation.

18 ume in a surfactant-deficient patient during high-frequency oscillatory ventilation.

19 e of CO2 values in pediatric patients during high-frequency oscillatory ventilation.

20 Percutaneous dilational tracheostomy during high-frequency oscillatory ventilation.

21 the percutaneous dilational tracheostomy or high-frequency oscillatory ventilation.

22 h acute respiratory distress syndrome during high-frequency oscillatory ventilation.

23 High-frequency oscillatory ventilation+10 and +15 furthe

24 At high-frequency oscillatory ventilation+15, 15 patients h

25 ion and was increased until 33+/-3 cm H2O at high-frequency oscillatory ventilation+15.

26 tricular end-diastolic area increase>40%) at high-frequency oscillatory ventilation+15.

27 itude pressure oscillations delivered during high-frequency oscillatory ventilation; 2) to characteri

28 ents were submitted to three 1-hr periods of high-frequency oscillatory ventilation (+5, +10, +15) in

29 with conventional mechanical ventilation or high-frequency oscillatory ventilation+5 periods.

30 Of infants assigned to high-frequency oscillatory ventilation, 56 percent were

31 High-frequency oscillatory ventilation, airway pressure

32 ventilation compared with animals receiving high-frequency oscillatory ventilation alone (253 +/- 16

33 Although the group receiving high-frequency oscillatory ventilation alone eventually

34 was 75% (nine of 12), 80% (four of five) for high-frequency oscillatory ventilation alone, and 71% (f

35 pid improvement in arterial oxygenation than high-frequency oscillatory ventilation alone, in a pigle

36 During high-frequency oscillatory ventilation, an understanding

37 The role of high-frequency oscillatory ventilation and airway pressu

38 verse events were similar between coenrolled high-frequency oscillatory ventilation and control patie

39 s treated with high-dose corticosteroids and high-frequency oscillatory ventilation and experienced a

40 infection and severe lung injury, the use of high-frequency oscillatory ventilation and extracorporea

41 the efficacy of rescue therapies, including high-frequency oscillatory ventilation and extracorporea

42 n to detect changes in lung mechanics during high-frequency oscillatory ventilation and has the poten

43 The combination of high-frequency oscillatory ventilation and partial liqui

44 After lung injury, subjects were changed to high-frequency oscillatory ventilation and stabilized fo

45 Teens were more likely to receive high-frequency oscillatory ventilation and this therapy

46 aO2) were monitored during the transition to high-frequency oscillatory ventilation and throughout th

47 The animals were then administered high-frequency oscillatory ventilation and ventilated wi

48 ure-volume relationship in infants receiving high-frequency oscillatory ventilation, and 2) to determ

49 o on to airway pressure release ventilation, high-frequency oscillatory ventilation, and computer-bas

50 patient variables affect tidal volume during high-frequency oscillatory ventilation; and b) measure t

51 The efficacy and safety of early high-frequency oscillatory ventilation as compared with

52 High-frequency oscillatory ventilation at 24 hrs resulte

53 The animals were ventilated with high-frequency oscillatory ventilation at the same mean

54 ance and functional residual capacity during high-frequency oscillatory ventilation can be used to ad

55 drome, using high mean airway pressure under high-frequency oscillatory ventilation can worsen right

56 als that received 3 mL/kg of perflubron with high-frequency oscillatory ventilation compared with ani

57 High-frequency oscillatory ventilation did not improve o

58 High-frequency oscillatory ventilation enables the use o

59 ved a lung protective strategy (open lung or high-frequency oscillatory ventilation) exhibited more f

60 ntilation alone, and 71% (five of seven) for high-frequency oscillatory ventilation + extracorporeal

61 rs, prone positioning, inhaled nitric oxide, high-frequency oscillatory ventilation, extracorporeal m

62 The patient was treated with high-frequency oscillatory ventilation, extracorporeal m

63 ithm-controlled conventional ventilation vs. high-frequency oscillatory ventilation for adults with s

64 ion of current practice regarding the use of high-frequency oscillatory ventilation for pediatric hyp

65 r treatment of DAH after BMT and the role of high-frequency oscillatory ventilation for treatment of

66 Animals treated with high-frequency oscillatory ventilation had attenuated ox

67 High-frequency oscillatory ventilation has been shown to

68 When initiated early, high-frequency oscillatory ventilation has been shown to

69 High-frequency oscillatory ventilation has been used suc

70 The utilization of high-frequency oscillatory ventilation has dramatically

71 ical benefit of heliox administration during high-frequency oscillatory ventilation has yet to be det

72 Ventilator settings typically used for high-frequency oscillatory ventilation (HFO) in adults p

73 ollow changes in mean airway pressure during high- frequency oscillatory ventilation (HFOV).

74 High-frequency oscillatory ventilation (HFOV) and inhale

75 Review data obtained from high-frequency oscillatory ventilation (HFOV) and mechan

76 chanical lung recruitment techniques such as high-frequency oscillatory ventilation (HFOV) and partia

77 The use of high-frequency oscillatory ventilation (HFOV) for acute

78 The use of high-frequency oscillatory ventilation (HFOV) has increa

79 Acute lung injury models demonstrate that high-frequency oscillatory ventilation (HFOV) improves l

80 hat heliox would improve gas exchange during high-frequency oscillatory ventilation (HFOV) in a model

81 Outcomes associated with use of high-frequency oscillatory ventilation (HFOV) in childre

82 High-frequency oscillatory ventilation (HFOV) is an attr

83 RATIONALE: High-frequency oscillatory ventilation (HFOV) is theoret

84 High-frequency oscillatory ventilation (HFOV) may reduce

85 Previous trials suggesting that high-frequency oscillatory ventilation (HFOV) reduced mo

86 High-frequency oscillatory ventilation (HFOV) using an o

87 Use of nontidal high-frequency oscillatory ventilation (HFOV) while the

88 haled nitric oxide (iNO), prone positioning, high-frequency oscillatory ventilation (HFOV), and extra

89 onal study involving neonates suggested that high-frequency oscillatory ventilation (HFOV), as compar

90 ecreasing pulmonary vascular resistance with high-frequency oscillatory ventilation (HFOV), we develo

91 ociated lung disease who are ventilated with high-frequency oscillatory ventilation (HFOV).

92 0 breaths/min) and low VT (8 ml/kg), or with high-frequency oscillatory ventilation (HFOV).

93 onal mechanical ventilation (CMV, n = 15) or high-frequency oscillatory ventilation (HFOV, n = 5).

94 onventional mechanical ventilation [CMV] vs. high-frequency oscillatory ventilation [HFOV]) on perflu

95 ommendation is strong against routine use of high-frequency oscillatory ventilation (high confidence

96 ute to ventilator-induced lung injury during high-frequency oscillatory ventilation in adults compare

97 Observational studies of high-frequency oscillatory ventilation in adults with th

98 There was a small but significant benefit of high-frequency oscillatory ventilation in terms of the p

99 We conclude that early use of high-frequency oscillatory ventilation in very preterm i

100 ng the techniques of permissive hypercapnia, high frequency oscillatory ventilation, inhaled nitric o

101 High-frequency oscillatory ventilation is both safe and

102 al for ventilator-induced lung injury during high-frequency oscillatory ventilation is enhanced at fr

103 CT) showed a lung recruitment maneuver using high-frequency oscillatory ventilation just before surfa

104 The combination of low-dose perflubron with high-frequency oscillatory ventilation leads to more rap

105 sonant frequency should be considered during high-frequency oscillatory ventilation management.

106 ritical pulmonary status, patients requiring high-frequency oscillatory ventilation may especially be

107 cal basis for minimizing tidal volume during high-frequency oscillatory ventilation may not be approp

108 rflubron, the combination of perflubron with high-frequency oscillatory ventilation may permit effect

109 end-expiratory pressure) were randomized to high-frequency oscillatory ventilation (n = 75) or conve

110 idence for a clinical benefit of noninvasive high-frequency oscillatory ventilation (nHFOV) in preter

111 ric studies include endotracheal surfactant, high-frequency oscillatory ventilation, noninvasive vent

112 Measured tidal volumes were 23-225 mL during high-frequency oscillatory ventilation of the test lung.

113 probability of receiving early NMBA included high-frequency oscillatory ventilation on days 0-2 (odds

114 lment did not modify the treatment effect of high-frequency oscillatory ventilation on hospital morta

115 The other five animals remained on high-frequency oscillatory ventilation only.

116 ot greater than the improvements seen in the high-frequency oscillatory ventilation-only group.

117 Rescue therapy (high-frequency oscillatory ventilation or extracorporeal

118 orticosteroids and then randomly assigned to high-frequency oscillatory ventilation or synchronized i

119 ne ventilation, extracorporeal life support, high-frequency oscillatory ventilation, or inhaled nitri

120 n preventive respiratory treatments include: high frequency oscillatory ventilation, permissive hyper

121 elp stratify mortality risk and guide future high-frequency oscillatory ventilation practice.

122 A lung volume recruitment strategy during high-frequency oscillatory ventilation produced improved

123 cal ventilation, notably in patients in whom high-frequency oscillatory ventilation produced less alv

124 euvers, airway pressure release ventilation, high-frequency oscillatory ventilation, prone positionin

125 High-frequency oscillatory ventilation relies on the gen

126 High-frequency oscillatory ventilation simulations demon

127 with a high-amplitude (18 cm H2O) asymmetric high-frequency oscillatory ventilation square pressure w

128 The relative benefits of strategies such as high frequency oscillatory ventilation, surfactant repla

129 Syndrome Treated Early Trial, which compared high-frequency oscillatory ventilation to conventional v

130 Tidal volume can be measured during high-frequency oscillatory ventilation using a variety o

131 OR, 11.0; 95% CI, 2.26-53.8 for the need for high-frequency oscillatory ventilation vs no respiratory

132 atory support (OR, 7.0; 95% CI, 1.3-37.1 for high-frequency oscillatory ventilation vs. no respirator

133 ion, conventional mechanical ventilation, or high-frequency oscillatory ventilation was continued for

134 High-frequency oscillatory ventilation was instituted af

135 determine whether infants treated with early high-frequency oscillatory ventilation were more likely

136 < .02) at 12, 24, and 48 hrs after starting high-frequency oscillatory ventilation were observed.

137 Infants randomly assigned to high-frequency oscillatory ventilation were successfully

138 al comparing the safety and effectiveness of high-frequency oscillatory ventilation with conventional

139 h acute respiratory distress syndrome during high-frequency oscillatory ventilation with the Sensorme

140 Anesthetized piglets underwent high-frequency oscillatory ventilation, with mean airway

141 Xrs can be accurately measured during high-frequency oscillatory ventilation without interrupt

142 s that infants who were randomly assigned to high-frequency oscillatory ventilation would have superi