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1 ene attenuated BEC proliferation after acute bile duct injury.
2 The primary outcome was bile duct injury.
3 -17A production and ameliorated intrahepatic bile duct injury.
4 e phenotypes, and proliferate in response to bile duct injury.
5 tivity, potentially allowing for exaggerated bile duct injury.
6 have been linked to pathogenic mechanisms of bile duct injury.
7 on in the portal region, without evidence of bile duct injury.
8 gen(s) responsible for T-cell activation and bile duct injury.
9 ced, subsequent autoreactive T cell-mediated bile duct injury.
10 ntigen-specific animal model of inflammatory bile duct injury.
11 e might be able to decrease the incidence of bile duct injury.
12 the normal biliary proliferative response to bile duct injury.
13 ,411 for all care related to repair of their bile duct injury.
14 ures with a recognized morbidity relating to bile duct injuries.
15 of laparoscopic cholecystectomy (LC)-related bile duct injuries.
16 tectomy was associated with a higher rate of bile duct injury (0.4% vs 0.2%; RR, 1.88 [95% CI, 1.14-2
17 my was associated with a lower risk of major bile duct injury [0.28% vs 0.53%, relative risk (RR)=0.5
18 orrhage, 0.3%; subhepatic collections, 2.9%; bile duct injury, 0.08%; and retained stones, 3.1%); the
19 gnant biliary obstruction (1.8%), history of bile duct injury (2.2%), or complications of liver trans
21 s treated at a single institution with major bile duct injuries after laparoscopic cholecystectomy ma
23 Benign biliary stricture occurs secondary to bile duct injury, anastomotic narrowing, or chronic infl
25 PTC and PTBD performed for management of bile duct injury and complications of liver transplantat
28 ell Polarity signalling components following bile duct injury and promote the formation of ductular s
30 helialitis disproportionate to the degree of bile duct injury are features that appear unique to pedi
32 rimental BA, CD25+ cell depletion aggravated bile duct injury at 12 dpi after RRV inoculation, as pla
39 his analysis were to compare the outcomes of bile duct injuries by specialist over time and the role
43 February 1, 2000, and November 23, 2011 for bile duct injury, cholangiocarcinoma, choledochal cysts,
45 e incidence and mechanism of injury of major bile duct injuries during laparoscopic cholecystectomy h
46 iologic management of 89 patients with major bile duct injuries during laparoscopic cholecystectomy.
47 There seems to be an increase in the rate of bile duct injuries during SILC when compared with histor
49 imary endpoint was the occurrence of a major bile duct injury during laparoscopic cholecystectomy (bi
50 lso be critical in the early phases of small bile duct injury found in primary biliary cirrhosis.
52 after successful surgical repair of a major bile duct injury from a LC treated at the Johns Hopkins
56 ly indicated in the management of iatrogenic bile duct injuries (IBDI), but occasionally, it becomes
60 helialitis disproportionate to the degree of bile duct injury in all 7 patients; periportal/perivenul
61 ological, and molecular markers of liver and bile duct injury in Mdr2-/- mice and also had direct pro
62 in the development of cholestatic liver and bile duct injury in mouse models of sclerosing cholangit
64 ed in vivo in multiple models of hepatic and bile duct injury, including bile duct ligation and CCl(4
66 murine biliary atresia, and the progressive bile duct injury is due in part to a bile duct epithelia
67 pathogenesis of biliary atresia (BA) is that bile duct injury is initiated by a virus infection, foll
69 ost common associated complications included bile duct injury (n = 397), bowel perforation (n = 96),
70 tectomy was associated with a higher rate of bile duct injury necessitating a definitive operative re
71 intermittent toxin exposure, which provokes bile duct injury/necrosis and proliferation, fibroblast
72 It has been suggested that the majority of bile duct injuries occur as a result of operator disorie
74 ted at the Johns Hopkins Hospital with major bile duct injuries or postoperative bile duct strictures
75 nfidence interval [CI]: 0.31-0.90], of major bile duct injury or death (1.36% vs 1.88%, RR=0.72, 95%
80 as evaluated from a psychological dimension, bile duct injury patients reported QOL scores in the phy
85 pic cholecystectomy (n = 35 037) had similar bile duct injury rates (0.37% [128 of 35 037] vs 0.39% [
86 ction may not be the cause of differences in bile duct injury rates among patients undergoing robotic
88 this cohort study of Medicare beneficiaries, bile duct injury rates were higher among low-, medium-,
89 and laparoscopic cholecystectomy had similar bile duct injury rates, but robotic-assisted cholecystec
91 postoperative bile duct strictures and major bile duct injuries remains a challenge for even the most
95 Secondary outcomes were composite outcome of bile duct injury requiring less-invasive postoperative s
98 ey bias underestimates the true frequency of bile duct injuries, residency training decreases the lik
100 ata show that errors leading to laparoscopic bile duct injuries stem principally from misperception,
101 e reported in 278 (1.3%) patients and severe bile duct injuries (Strasberg grades B-E) were reported
102 o determine the optimal timing for repair of bile duct injuries sustained during cholecystectomy.
105 sults concerning complications, particularly bile duct injury, to those reported in open cholecystect
119 sis in a cohort of patients with Strasberg E bile duct injuries who underwent HJ after a minimum foll
120 y's finding of significantly higher rates of bile duct injury with robotic-assisted cholecystectomy c