ライフサイエンスコーパス: biliary tree

1 ients may not originate exclusively from the biliary tree.

2 ted complications yet maintain access to the biliary tree.

3 hat triggers a proliferative response of the biliary tree.

4 y, 17 patients required decompression of the biliary tree.

5 n the management of benign strictures of the biliary tree.

6 heterogeneous along the normal intrahepatic biliary tree.

7 able of producing high-quality images of the biliary tree.

8 ave activity in metastatic carcinomas of the biliary tree.

9 ecipient duct or jejunum) to reconstruct the biliary tree.

10 ated to be retargeted, deleteriously, to the biliary tree.

11 e duct strictures that can affect the entire biliary tree.

12 involving the extrahepatic and intrahepatic biliary tree.

13 rtially thrombosed mycotic aneurysm into the biliary tree.

14 he embryonic liver caused hyperplasia of the biliary tree.

15 is a candidate tumor suppressor gene in the biliary tree.

16 nd benign conditions affecting the liver and biliary tree.

17 cinoma is a highly malignant neoplasm of the biliary tree.

18 ) are present in the guinea pig extrahepatic biliary tree.

19 n AQPs have been identified in the liver and biliary tree.

20 stine, even in mice with inflammation of the biliary tree.

21 langiocytes, the epithelial cells lining the biliary tree.

22 role in the development of the intrahepatic biliary tree.

23 of the secreted hormone on the growth of the biliary tree.

24 r disease characterized by strictures of the biliary tree.

25 dality for the pancreas and the extrahepatic biliary tree.

26 ced proliferation of all compartments of the biliary tree.

27 f the corresponding defect in the developing biliary tree.

28 vely decreased with increasing length of the biliary tree.

29 Its association with cytomegalovirus and biliary tree abnormalities suggest specific areas for pr

30 ough 12 Wnt and 7 Fz genes were expressed in biliary tree, additional Fz9 and Fzb were only expressed

31 mRNA and protein were detected only near the biliary tree after BDL, and not in the peripheral liver,

32 ited data exist regarding the renewal of the biliary tree after partial hepatectomy.

33 progressively from proximal to distal in the biliary tree and correlated with location-related differ

34 iocarcinoma (ICC) likely originates from the biliary tree and develops within the hepatic parenchyma.

35 racting potential inflammatory damage in the biliary tree and gastrointestinal tract, whereas plasma

36 HGF mRNA expression is increased in both the biliary tree and in the peripheral liver, and production

37 a disease of unknown cause that effects the biliary tree and is closely associated with inflammatory

38 titis, fatty liver disease, disorders of the biliary tree and other topics that have a substantial im

39 n G4 (IgG4)-related disease (IgG4-RD) of the biliary tree and pancreas is difficult to distinguish fr

40 diagnosis, and monitoring of IgG4-RD of the biliary tree and pancreas.

41 with regard to the overall visibility of the biliary tree and pancreatic duct and the number of ducta

42 y of eight individual ductal segments of the biliary tree and pancreatic duct, and number of ductal s

43 ecific anatomical locations within the human biliary tree and pancreatic ducts.

44 substances, including ET-1, are found in the biliary tree and selectively enter the circulation after

45 cidal agents in cysts communicating with the biliary tree and short-course medical therapy for dissem

46 documented fistulous connection between the biliary tree and shunt.

47 heterogeneous along the normal intrahepatic biliary tree and suggest that secretion-regulated transp

48 lack of continuity between the extrahepatic biliary tree and the small intestine as demonstrated by

49 to better evaluate branching patterns of the biliary tree and, eventually, the quantitative aspects o

50 o the promise of direct visualization of the biliary trees and the complementary tools for diagnosis

51 nd carcinomas affecting the liver, pancreas, biliary tree, and associated neuroectodermal endocrine c

52 es are present in the gut, gall bladder, and biliary tree, and biliary epithelial cells express CD40

53 IL-6R mRNA is weakly expressed in the biliary tree, and IL-6R protein is detectable on hepatoc

54 table; met mRNA is expressed strongly in the biliary tree, and met protein is expressed weakly on hep

55 Stem/progenitors for liver, biliary tree, and pancreas exist at early stages of deve

56 ications in benign disease of the esophagus, biliary tree, and pancreas, in addition to its increasin

57 The anatomical details of the biliary tree architecture of normal rats and rats in who

58 Those found in the biliary tree are still being defined.

59 Cells lining the biliary tree are targets of injury, but also orchestrate

60 orms are heterogeneously expressed along the biliary tree, are associated with specific secretory sti

61 cholangiocytes, the epithelia lining of the biliary tree, are the target cells.

62 Morphometric analysis showed regrowth of the biliary tree beginning at day 1 with restoration by day

63 th of both the extrahepatic and intrahepatic biliary tree, but have distinctly different phenotypes a

64 he cells were immune-sorted from human fetal biliary tree by protocols in accordance with current goo

65 Depending on their localization along the biliary tree, CCAs are classified as intrahepatic, perih

66 proved visibility of the pancreatic duct and biliary tree, compared with the conventional 2D SSFSE th

67 r disease characterized by strictures of the biliary tree complicated by cirrhosis and cholangiocarci

68 r disease characterized by strictures of the biliary tree complicated by cirrhosis and cholangiocarci

69 r disease characterized by strictures of the biliary tree complicated by cirrhosis and cholangiocarci

70 Biliary tree complications were present in 34% of entero

71 maging modalities enable precise location of biliary tree components for radiation treatment planning

72 negative to Sox9-positive progenitors as the biliary tree develops.

73 Biliary tree dimensions and novel insights into anatomic

74 tion, tumors developed in other parts of the biliary tree (e.g., cholangiocarcinoma).

75 ens and that malignant transformation in the biliary tree follows chronic infection or inflammation.

76 Extrinsic compression of biliary tree from mass effect of sarcoid granulomas with

77 ine into the bile canaliculus to protect the biliary tree from the detergent activity of bile salts.

78 resent in peribiliary glands of extrahepatic biliary trees from humans of all ages and in high number

79 onal differences of cholangiocytes along the biliary tree has been gained.

80 Cholangiocytes, epithelial cells lining the biliary tree, have primary cilia extending from their ap

81 Three-dimensional reconstruction of the biliary tree, hepatic artery, and portal vein in normal

82 umber of segments, whereas the length of the biliary tree, hepatic artery, and portal vein remain unc

83 The total volume of the biliary tree, hepatic artery, and portal vein was increa

84 computer reconstructions of the intrahepatic biliary tree, identification of oval cells (presumed pro

85 , middle, and lower part of the extrahepatic biliary tree in 11, 4, and 4 patients (58%, 21%, and 21%

86 bile and fluid obtained from the obstructed biliary tree in CBDL animals contains ET-1 and alters eN

87 eration of the extrahepatic and intrahepatic biliary tree in most patients and defective morphogenesi

88 inflammatory obstruction of the extrahepatic biliary tree in neonates.

89 secondary to opportunistic infections of the biliary tree in patients with acquired immunodeficiency

90 ts the growth and choleretic activity of the biliary tree in the bile duct-ligated rat, a model of ch

91 d on serotonin that limits the growth of the biliary tree in the course of chronic cholestasis.

92 f human cholangiocytes from the extrahepatic biliary tree in the form of extrahepatic cholangiocyte o

93 The biliary tree in the PCK rat was distorted markedly, show

94 h normal rats, the total surface area of the biliary tree increased 26 times after ANIT-induced bile

95 In conclusion, IL-6 appears to contribute to biliary tree integrity and maintenance of hepatocyte mas

96 this approach: the canal of Hering (proximal biliary tree), intralobular bile ducts, periductal "null

97 duct are unaltered, this enlargement of the biliary tree is caused by branching and not by convoluti

98 asing impact of endoscopic ultrasound in the biliary tree is explored, as well as the latest developm

99 The biliary tree is the target of cholangiopathies that are

100 Cholangiocarcinoma (CCA), or tumor of the biliary tree, is a rare and heterogeneous group of malig

101 principal bicarbonate secretor in the human biliary tree, is down-regulated in primary biliary chola

102 ombination of Northern blotting and a unique biliary tree isolation technique, in which the bile duct

103 per abdominal surgery, serum creatinine, and biliary tree malignancy (all P <.03).

104 Biliary tree malignancy could be omitted from the Cox mo

105 high serum creatinine, high serum bilirubin, biliary tree malignancy, previous upper abdominal surger

106 langiocytes, the epithelial cells lining the biliary tree, normally express primary cilia and their i

107 , assessed by liver histology or imaging the biliary tree, occurred in 56 of 152 patients (37%) at a

108 Moreover, the total volume of the biliary tree of ANIT-fed rats was significantly greater

109 Congenital and acquired diseases of the biliary tree, or cholangiopathies, represent a significa

110 that pancreatic stem cells reside within the biliary tree, primarily the hepatopancreatic common duct

111 usion, ECOs can successfully reconstruct the biliary tree, providing proof of principle for organ reg

112 othesis that, after partial hepatectomy, the biliary tree regenerates by proliferation of the remaini

113 nts decreased twofold, and the length of the biliary tree remained unchanged after ANIT feeding.

114 ts proof of the concept that the human fetal biliary tree stem cells are a suitable and large source

115 Biliary tree stem cells are comprised of multiple subpop

116 epatic artery transplantation of human fetal biliary tree stem cells in patients with advanced cirrho

117 most primitive of the stem/progenitor cells, biliary tree stem cells, are found in peribiliary glands

118 ture for hFL-HCCs closely resembling that of biliary tree stem cells--newly discovered precursors for

119 Human biliary tree stem/progenitor cells (hBTSCs) are being us

120 wide variability of location of extrahepatic biliary tree structures suggests the need for individual

121 h biliary atresia (i.e., obliteration of the biliary tree) suffer liver fibrosis and cirrhosis.

122 depict the whole pancreatic duct system, the biliary tree, the major and minor papillae, and the duod

123 improved imaging and tissue sampling of the biliary tree through endoscopic ultrasound techniques, b

124 pts and the pathophysiologic response of the biliary tree to injury should provide new therapies for

125 Our results show that the biliary tree undergoes extensive remodeling resulting in

126 The intrahepatic biliary tree was filled with a silicone polymer through

127 Associated resection of the extrahepatic biliary tree was required in 11 cases (58%) and could be

128 mal, cholangiographically identifiable human biliary tree was studied with an innovative computer-aid

129 Changes around the biliary tree were compared with those seen in the periph

130 ibrosis involving the hepatic parenchyma and biliary tree, which can lead to cirrhosis and malignancy

131 ion of met and gp-80 mRNA and protein in the biliary tree, which is stronger than that seen in the pe

132 ccessfully be performed to all levels of the biliary tree with low rates of leak, stricture, cholangi

133 t compression or rupture of the HAA into the biliary tree with occlusion of the lumen from blood clot

134 al ways that have revealed the extent of the biliary tree within the hepatic parenchyma, including id