戻る
「早戻しボタン」を押すと検索画面に戻ります。 [閉じる]

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 ., partial liquid breathing or intratracheal pulmonary ventilation).
2 s (such as hypercapnia and hypoxia) improves pulmonary ventilation.
3 CO(2) release from blood->increased VCO2 and pulmonary ventilation.
4 of a continual upward drift in (V(O(2))) and pulmonary ventilation.
5  serious potential side effect of mechanical pulmonary ventilation.
6  CO(2) release from blood increased VCO2 and pulmonary ventilation.
7 etabolic rate, afferent blockade compromised pulmonary ventilation and gas exchange efficiency, consi
8 elected MRI techniques for the assessment of pulmonary ventilation and perfusion.
9                                              Pulmonary ventilation and pulmonary arterial pressure bo
10 igh-resolution measurements of both regional pulmonary ventilation and regional blood flow (r ) have
11                     To improve monitoring of pulmonary ventilation and support early diagnosis, we pr
12 tolic functional profiles (untwisting rate), pulmonary ventilation and systemic aerobic metabolism we
13 tration of aerosol particles in expired air, pulmonary ventilation, and aerosol particle emission at
14 ilation, inhaled nitric oxide, intratracheal pulmonary ventilation, and liquid ventilation.
15                The homeostatic regulation of pulmonary ventilation, and ultimately arterial PCO(2), d
16                                              Pulmonary ventilation, arterial blood gases and oxyhaemo
17       Purpose To compare the distribution of pulmonary ventilation assessed by a CT-based full-scale
18                             During exercise, pulmonary ventilation can increase over 10-fold, and the
19 estigate the influencing factors of abnormal pulmonary ventilation function in occupational exposed p
20 l health examination, 1681 cases of abnormal pulmonary ventilation function were detected, resulting
21 be the optimal model for predicting abnormal pulmonary ventilation function.
22 study performed between May and August 2017, pulmonary ventilation in participants with COPD was comp
23 saving intervention used to provide adequate pulmonary ventilation in patients suffering from respira
24                                         When pulmonary ventilation in sham animals was controlled and
25  airway network flow model provided regional pulmonary ventilation information for chronic obstructiv
26                                              Pulmonary ventilation is accomplished by alterations in
27 al injury following short-term intratracheal pulmonary ventilation (ITPV) and conventional mechanical
28                                intratracheal pulmonary ventilation (ITPV); hybrid ITPV; tracheal gas
29 c pulmonary vasoconstriction (HPV) optimizes pulmonary ventilation-perfusion matching in regional hyp
30                                              Pulmonary ventilation/perfusion (V/Q) mismatch measured
31 ical strain caused by hypertension or excess pulmonary ventilation pressure, lead to important clinic
32 tative and spatially localized assessment of pulmonary ventilation properties without tracer gas hype
33  output, increased heart rate, and increased pulmonary ventilation relative to metabolism.
34 cts of inhaled nitric oxide gas of improving pulmonary ventilation to perfusion matching and hemodyna
35  deflation with IND/GLY on PMBF and regional pulmonary ventilation using magnetic resonance imaging (
36                                 The rates of pulmonary ventilation (V(I)), O2 consumption (V(O2)) and
37 ecord electromyographic (EMG) activities and pulmonary ventilation (VI) at rest and at workload incre
38                                     Regional pulmonary ventilation was assessed with 100% oxygen as a
39                                  The modeled pulmonary ventilation was compared with functional imagi
40                                              Pulmonary ventilation was up to 20% lower across all int