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 The patient experienced no primary graft dysfunction.
2 e damage to subpleural pulmonary vessels and primary graft dysfunction.
3 uction immunosuppression and the presence of primary graft dysfunction.
4 olonged ventilation, renal insufficiency and primary graft dysfunction.
5 risk is directly related to the severity of primary graft dysfunction.
6 mong subjects who died by 30 days, 43.6% had primary graft dysfunction.
7 nical ventilation or the incidence of severe primary graft dysfunction.
8 ggested that HOPE was beneficial in reducing primary graft dysfunction.
9 was 298 min with no observed cases of severe primary graft dysfunction.
10 t contributor to donor heart dysfunction and primary graft dysfunction.
11 e prevented vascular leakage and ameliorated primary graft dysfunction.
12 ences in early post-HTx morbidity, including primary graft dysfunction (2.9% vs 1.7% vs 5.3%, P = .5)
13 ts at our program and graded the severity of primary graft dysfunction according to the International
14 ical circulatory support have been achieved, primary graft dysfunction after cardiac transplantation
16 emia-reperfusion injury is the main cause of primary graft dysfunction after lung transplantation and
17 fidence interval [CI], 3.2-19.4%) for severe primary graft dysfunction after lung transplantation and
18 reperfusion injury is a major determinant of primary graft dysfunction after lung transplantation, an
19 y be a novel therapeutic strategy to prevent primary graft dysfunction after lung transplantation.
20 ility, and lung edema, is the major cause of primary graft dysfunction after lung transplantation.
21 needed in 3 patients (15%) because of severe primary graft dysfunction; all were eventually weaned.
22 However, there was no association between primary graft dysfunction and acute rejection or lymphoc
24 etion may help to predict the development of primary graft dysfunction and avoid the need for retrans
26 ence of major complications including severe primary graft dysfunction and early mortality rates were
27 d a significantly higher incidence of severe primary graft dysfunction and higher short- and long-ter
28 ue sources identify patients at high risk of primary graft dysfunction and other pre- and post-transp
29 l-free DNA levels and the primary outcome of primary graft dysfunction and other transplant outcomes,
30 Postoperatively, the incidence of severe primary graft dysfunction and the incidence of acute ren
31 regression), 1-y patient and graft survival, primary graft dysfunction, and nonanastomotic biliary st
32 care unit and hospital length of stay (LOS), primary graft dysfunction at postoperative day 3, and ne
33 ms of MR and post-LTx complications, such as primary graft dysfunction, complicates its diagnosis and
36 coatomer subunit alpha [COPA] syndrome), and primary graft dysfunction following lung transplantation
37 ificant reduction in the incidence of severe primary graft dysfunction from 35% (8/23) to 8% (4/51) i
38 hypoalbuminemia, thrombocytopenia, and high primary graft dysfunction grade were multivariate predic
39 onal Society for Heart & Lung Tranplantation primary-graft dysfunction grade 3 (PGD3) within 72 h pos
40 Among the 334 recipients, 65 did not have primary graft dysfunction (grade 0), 130 had grade 1, 69
42 nts surviving at least 1 year, those who had primary graft dysfunction had significantly worse surviv
47 d; 95% CI, 0.81-6.40; P = 0.011), and higher primary graft dysfunction incidence at day 3 (odds ratio
48 nonanastomotic biliary strictures frequency, primary graft dysfunction incidence, 1-y patient, and gr
49 ed use of cardiopulmonary bypass, and severe primary graft dysfunction increased the risk for death i
50 ve outcomes such as hospital length of stay, primary graft dysfunction, inotrope score, mechanical ci
56 observational study cohorts at risk for ALI: primary graft dysfunction (N = 619) and acute respirator
57 ion injury, which may lead to lower rates of primary graft dysfunction necessitating extracorporeal m
59 ansplant cell-free DNA increased the risk of primary graft dysfunction (odds ratio, 1.60; 95% confide
62 r 3 y, or differences in incidence of severe primary graft dysfunction or acute cellular rejection.
63 o significant differences in rates of severe primary graft dysfunction or acute rejection within 1 y.
65 er lung allocation score was associated with primary graft dysfunction (P < 0.0001), postoperative ex
66 a/reperfusion injury-mediated (IRI-mediated) primary graft dysfunction (PGD) adversely affects both s
68 e clinical use of circulating biomarkers for primary graft dysfunction (PGD) after lung transplantati
69 evels are associated with the development of primary graft dysfunction (PGD) after lung transplantati
70 1) levels in plasma would be associated with primary graft dysfunction (PGD) after lung transplantati
71 od cell (PRBC) transfusion and occurrence of primary graft dysfunction (PGD) and associated outcomes.
74 strongly predispose to the fatal syndrome of primary graft dysfunction (PGD) following lung transplan
75 (pTLC) is associated with a reduced risk of primary graft dysfunction (PGD) following lung transplan
92 er cardiac-related death, moderate or severe primary graft dysfunction (PGD) of the left ventricle, P
95 an transplant recipients, largely because of primary graft dysfunction (PGD), a major form of acute l
97 s) are associated with a higher incidence of primary graft dysfunction (PGD), although it remains unc
98 l allografts may be at an increased risk for primary graft dysfunction (PGD), the leading cause of ea
106 antation with good early outcome [absence of primary graft dysfunction- (PGD) grade 3]; (II) PGD3: bi
108 with a significantly reduced risk of severe primary graft dysfunction, postbypass severe right ventr
109 intensive care unit stay (P = 0.74), highest primary graft dysfunction score (P = 0.67) and hospital
110 e care unit stay, hospital stay, and highest primary graft dysfunction score within 72 hours) and lon
111 Wisconsin solution in grafts with subsequent primary graft dysfunction, suggesting a slower recovery
112 oups in 1-year survival, incidence of severe primary graft dysfunction, treated rejection during the
113 on study to predict recipients' post-surgery primary graft dysfunction using donors' gene expressions
114 All-cause mortality at 30 days was 42.1% for primary graft dysfunction versus 6.1% in patients withou
116 hiolitis obliterans syndrome associated with primary graft dysfunction was independent of acute rejec
119 nterval significantly associated with severe primary graft dysfunction was the asystolic warm ischemi
121 In the univariable analysis, all grades of primary graft dysfunction were associated with a signifi