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1 rom the biliary tree and develops within the hepatic parenchyma.
2 tructure, which shows similarities to normal hepatic parenchyma.
3 hal insult to tumors while preserving normal hepatic parenchyma.
4 th in the portal triad that effaced adjacent hepatic parenchyma.
5 of amastigotes from foci of infection in the hepatic parenchyma.
6 ns, angiogenesis, and regeneration of normal hepatic parenchyma.
7 was no collateral damage to the neighboring hepatic parenchyma.
8 oth in portal regions and extending into the hepatic parenchyma.
9 ccompanying enhancement abnormalities of the hepatic parenchyma.
10 er the risk of toxic effects of drugs on the hepatic parenchyma.
11 e requirement for the formation of an active hepatic parenchyma.
12 foci of increased vascularization within the hepatic parenchyma.
13 neum (11 sites), lymph nodes (10 sites), and hepatic parenchyma.
14 negligible inflammation/necrosis within the hepatic parenchyma.
15 us activated Kupffer cells were noted in the hepatic parenchyma.
16 enous inflow block with hypoperfusion of the hepatic parenchyma.
17 the number of neutrophils sequestered in the hepatic parenchyma.
18 te out of the vessels and integrate into the hepatic parenchyma.
19 ounding the bile ductules and throughout the hepatic parenchyma.
20 whereas the portal vein supplies most normal hepatic parenchyma.
21 n response to direct injury or injury to the hepatic parenchyma.
22 r cells, which are rarely observed in normal hepatic parenchyma.
23 inflammation and the pathogenic processes in hepatic parenchyma.
26 ultifocal accumulations of leukocytes in the hepatic parenchyma and around portal tracts and central
27 inflammation leads to fibrosis involving the hepatic parenchyma and biliary tree, which can lead to c
28 lation, with less neutrophils present in the hepatic parenchyma and far more neutrophils adherent to
29 enges in establishing long-term viability of hepatic parenchyma and incorporating structurally and fu
30 xpressing monocytes and Kupffer cells in the hepatic parenchyma and perivascular sites and absence of
31 ductular reactive (DR) cells extend into the hepatic parenchyma and promote inflammation and fibrosis
32 teract with HSCs on their migration into the hepatic parenchyma, and a depletion or deactivation of H
33 ivo recruitment of NK cells to pulmonary and hepatic parenchyma, and s.c. tumor after treatment of mi
35 se the numbers of ECFC persisting within the hepatic parenchyma are needed in order to enhance ECFC t
36 profiles are associated with changes in the hepatic parenchyma as reflected in increased scores for
39 c +/- 3 (P < .0001 and P < .01) and those in hepatic parenchyma in healthy volunteers (745 msec +/- 6
41 ed hepatocytes is essential for a functional hepatic parenchyma, including genes encoding several apo
42 ed the extent of the biliary tree within the hepatic parenchyma, including identification of the cana
44 ere clinically equivocal (myocardium, lungs, hepatic parenchyma, jejunum, and renal cortex/medulla) a
45 s characterized by cystic replacement of the hepatic parenchyma, leading to hepatic dysfunction, port
48 zing lesion was progressive and involved the hepatic parenchyma, portal triads, and intralobular venu
49 ously shown that the microenvironment of the hepatic parenchyma regulates hepatic tumor formation fro
52 pancreatic islet autotransplantation in the hepatic parenchyma (the intrahepatic [IH] group, n = 9)
56 stage 2 metastases mimicked the surrounding hepatic parenchyma, whereas stage 3 metastases exhibited
57 uminous subcapsular hematoma compressing the hepatic parenchyma, which appeared ischemic with a flatt