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1 al considerations and measurements of global pulmonary gas exchange.
2 e did not significantly improve deteriorated pulmonary gas exchange.
3  both greater ventilation and more efficient pulmonary gas exchange.
4 her arterial oxygen content and an unchanged pulmonary gas exchange.
5 ale methodology for quantitative analysis of pulmonary gas exchange.
6 apparent effects on systemic hemodynamics or pulmonary gas exchange.
7 hemodilution, immunomodulation, and improved pulmonary gas exchange.
8 od flow, left ventricular wall thickening or pulmonary gas exchange.
9    A minimal diffusion barrier is key to the pulmonary gas exchange.
10  0.001 vs control each) and the deteriorated pulmonary gas exchange (12-48 hr: p < 0.05 vs control ea
11                 Our objective was to examine pulmonary gas exchange abnormalities and the mechanisms
12 : see text]co(2)]) provides an indication of pulmonary gas exchange abnormalities in chronic obstruct
13 ynamics and is likely to be a consequence of pulmonary gas exchange abnormalities including ventilati
14 ays dysfunction, dynamic hyperinflation, and pulmonary gas exchange abnormalities.
15                                      We used pulmonary gas exchange and (31) P magnetic resonance spe
16 s, resulting in an apparent matching between pulmonary gas exchange and alveolar ventilation.
17                                              Pulmonary gas exchange and hemodynamics were monitored f
18      This pathophysiology included decreased pulmonary gas exchange and lung compliance, increased pu
19      This pathophysiology included decreased pulmonary gas exchange and lung compliance, increased pu
20  129Xe magnetic resonance imaging, report on pulmonary gas exchange and pulmonary capillary hemodynam
21 ging (MRI) is capable of regional mapping of pulmonary gas-exchange and has found application in a wi
22                                        Using pulmonary gas-exchange and intramuscular (31) P magnetic
23 ols (all P < 0.05) and minimal small airway, pulmonary gas exchange, and radiographic parenchymal lun
24     This study investigated hemodynamics and pulmonary gas exchange applying CPAP enhanced with press
25         The primary outcome is the change in pulmonary gas exchange as assessed by the partial pressu
26 ipheral gas exchange - which translates into pulmonary gas exchange - can be sensed.
27       We conclude that NO has net effects on pulmonary gas exchange, depending on the underlying lung
28                                          Why pulmonary gas exchange deteriorates after administration
29 ne in maximal aerobic capacity and preserves pulmonary gas exchange during acute hypoxic exercise.
30 ostimulation, near-infrared spectroscopy and pulmonary gas exchange during and following exercise.
31                         Tetrastarch sustains pulmonary gas exchange during experimental systemic infl
32 igh affinity haemoglobin had no worsening of pulmonary gas exchange during hypoxic exercise but had g
33  of venous admixture (Q VA /QT) that impairs pulmonary gas exchange efficiency (i.e. increases the al
34                                              Pulmonary gas exchange efficiency was evaluated using th
35  dyspnea, respiratory muscle activation, and pulmonary gas exchange efficiency.
36 respiratory mechanics but without impacts on pulmonary gas exchange efficiency; (2) normal total card
37 alculated shunt and the associated effect on pulmonary gas exchange estimated by MIGET.
38 and (129)Xe MRI for ventilation and regional pulmonary gas exchange evaluation, at the same study vis
39                 Women may experience greater pulmonary gas exchange impairment during exercise than m
40 more important in determining whether or not pulmonary gas exchange impairment occurs during exercise
41  how approximately 80 ppm inhaled NO altered pulmonary gas exchange in anesthetized ventilated dogs w
42 y increased during hypoxic exercise, whereas pulmonary gas exchange in HAH subjects was unchanged bet
43  the temporal and spatial characteristics of pulmonary gas exchange in intact and diseased lungs.
44 tion (MV) is used to support ventilation and pulmonary gas exchange in patients during critical illne
45 iction.Objectives: Noninvasive assessment of pulmonary gas exchange in preterm infants with and witho
46 t that the previously reported impairment in pulmonary gas exchange in the HIV+ population involves l
47                     These included decreased pulmonary gas exchange, increased pulmonary edema, abnor
48                   In a model of severe ARDS, pulmonary gas exchange is improved during total followed
49                                         Some pulmonary gas exchange is known to occur proximal to the
50 e effects of FS-069 on hemodynamic function, pulmonary gas exchange, left ventricular wall thickening
51 exhaustion with simultaneous measurements of pulmonary gas exchange, minute ventilation, blood lactat
52                               Some 12-19% of pulmonary gas exchange occurred within small (1.7 mm in
53 der these experimental conditions, 12-19% of pulmonary gas exchange occurs within the small pulmonary
54                         However, variance in pulmonary gas exchange played essentially no role in det
55                                              Pulmonary gas exchange relies on a rich capillary networ
56                                    Effective pulmonary gas exchange relies on the free diffusion of g
57 t (QT), leg blood flow (LBF), and muscle and pulmonary gas exchange, the latter using the multiple in
58 sure can increase myocardial work and impair pulmonary gas exchange to a degree that might be clinica
59 ventilated pigs, the prone position improves pulmonary gas exchange to a greater degree in the presen
60              We use our multiscale model for pulmonary gas exchange to quantify the oxygen uptake abn
61                                              Pulmonary gas exchange variables were determined breath
62                                              Pulmonary gas exchange was measured breath-by-breath and
63                                              Pulmonary gas exchange was measured breath-by-breath.
64                                              Pulmonary gas exchange was measured on a breath-by-breat
65 a dose-dependent fashion, no amelioration in pulmonary gas exchange was observed, as reflected by PaO
66                               Heart rate and pulmonary gas exchange were measured during the squat ex
67 njury, may have limited benefit in improving pulmonary gas exchange when diffusion is impaired by sev
68 od flow, left ventricular wall thickening or pulmonary gas exchange when injected intravenously in la
69 d flow, left ventricular wall thickening and pulmonary gas exchange when injected intravenously; and
70 he degree of airway obstruction and improved pulmonary gas exchange, whereas the development of lung