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 n PBGs were isolated from EHBT obtained from liver donors.
2 d long-term consequences of the procedure on liver donors.
3 the vascular and biliary variations in 3035 liver donors.
4 , as they comprised the majority of deceased liver donors.
5 prospective multicenter study of 172 living liver donors.
6 social" screening items of living kidney and liver donors.
7 There has been a drastic decrease in liver donors.
8 impact the availability of suitable deceased liver donors.
9 ation was observed among multiple kidney and liver donors.
10 ons and matched adjacent normal pairs, and 3 liver donors.
11 count for an increasing portion of potential liver donors.
12 ing donors: 35 RL liver donors and 45 LL/LLS liver donors.
13 plications in RL liver donors than in LL/LLS liver donors.
14 erienced more postoperative pain than LL/LLS liver donors.
15 rence in Clavien grade 2 complications in RL liver donors.
16 n, there is little comparable information on liver donors.
17 omy can be performed safely in healthy adult liver donors.
18 ti-HBc-positive donors have been excluded as liver donors.
19 life using both cadaveric and living-related liver donors.
25 f normal saline in 143 consecutive potential liver donors (81 men and 62 women; mean age, 37 years);
26 70-92 (n = 1043) were compared with average liver donors (ALDs) aged 18-69 (n = 15,878) and ideal li
28 ) in 2002 represented a fundamental shift in liver donor allocation to recipients with the highest ac
29 ts, we evaluated the immune response in a BD liver donor and compared it to that of a control group.
32 aluation and selection of nondirected living liver donors and a schema for just allocation of nondire
33 e further examined characteristics of living liver donors and identified factors potentially associat
34 udied the consequences of genetic effects of liver donors and recipients on PTDM outcomes, focusing o
35 were measured intraoperatively in right lobe liver donors and recipients with electromagnetic flow pr
38 id the identification of high-risk steatotic liver donors and to evaluate hepatic injury in the posto
39 n arterial graft procured from the cadaveric liver donor, and arterial patency was verified with intr
40 alized by bone marrow transplantation in the liver donor, and the lack of liver-derived antigen-prese
41 ives and decision making of potential living liver donors are critical areas for transplant clinician
50 The authors identified all living right-lobe liver donor candidates who underwent CT cholangiography
51 DBD and DDL cases per million people (pmp), liver donor conversion rate (LDCR), and population and e
54 well postoperative pain is managed in living liver donors, despite pain severity being the strongest
56 ine prior to CT cholangiography in potential liver donors does not increase bile duct caliber or impr
58 ective data analysis of all potential living liver donors evaluated at our center from 1998 to 2010 w
59 xplore whether a sample of 26 anonymous live liver donors experience a unique relationship with their
65 Although the number of deceased potential liver donors has increased, overall liver utilization am
69 ve mortality or acute liver failure for live liver donors in the United States and avoid selection or
72 rs, who represent nearly 40% of all deceased liver donors in the United States, the calculation of MM
73 e in inactive carriers of HBV versus healthy liver donors, including in the context of diverse HBsAg
76 ming living kidney donor (LKD) and/or living liver donor (LLD) transplantation were contacted to comp
78 onsent for live kidney donors (LKD) and live liver donors (LLD) for both adult and pediatric recipien
79 themes were living donation, use of marginal liver donors, machine preservation, disease-specific imm
81 Psychiatric assessment and monitoring of liver donors may help to understand and prevent such tra
82 the immunological response in a brain death liver donor model and analysed the effects of thalidomid
86 epatic steatosis, a common finding in living liver donors, not only influences the outcome of liver t
87 ty-specific data from 10,689 adult cadaveric liver donors obtained from the United Network for Organ
99 ime points were obtained from 6 HCV-positive liver donor/recipient pairs from the National Institute
101 icit, incidence of female donors, kidney and liver donor risk indices, kidney cold ischemia, and infe
102 allele match between the recipient and their liver donor suggests that HLA class I-restricted mechani
105 used to increase the pool of potential live liver donors that are currently excluded because of the
106 December 31, 2019 (n = 200 816) and deceased liver donors that were registered between the same time
109 ter transplantation) in transplanted aortas (liver donor-type) harvested from animals in group III.
110 ed to identify studies comparing outcomes of liver donors undergoing ODH, laparoscopic-assisted donor
121 -binding lectin (MBL2) gene polymorphisms of liver donors were significantly associated with bacteria
123 es per donor were collected for all accepted liver donors with at least 1 associated fee during the s
124 We report that although treatment of ACI liver donors with lethal irradiation does not lead to pr
125 rospective study, we evaluated 50 "marginal" liver donors with pre-procurement abdominal ultrasounds
126 urrent setting of organ shortage, brain-dead liver donors with recent liver trauma (RLT) represent a