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1.
Article in English | MEDLINE | ID: mdl-37584208

ABSTRACT

Left transposition of the great arteries with inlet ventricular septal defect and pulmonary stenosis is a relatively uncommon cardiac malformation. Two surgical treatments are available: double switch or physiological correction. The choice of surgical technique depends on the results of a discussion between the family and the surgeon. Choosing the appropriate technique is challenging because all options present various complications and benefits. We present a 'triple switch' aortic and pulmonary root inversion and modified Senning procedure for an anatomically complex left transposition of the great arteries with an inlet ventricular septal defect and pulmonary stenosis.


Subject(s)
Arterial Switch Operation , Heart Septal Defects, Ventricular , Pulmonary Valve Stenosis , Transposition of Great Vessels , Humans , Infant , Arterial Switch Operation/methods , Transposition of Great Vessels/surgery , Bays , Aorta/surgery , Pulmonary Valve Stenosis/surgery , Heart Septal Defects, Ventricular/surgery
2.
PLoS One ; 11(1): e0146000, 2016.
Article in English | MEDLINE | ID: mdl-26731658

ABSTRACT

The hepatitis C virus (HCV) life cycle is closely associated with lipid metabolism. In particular, HCV assembly initiates at the surface of lipid droplets. To further understand the role of lipid droplets in HCV life cycle, we assessed the relationship between HCV and the adipose differentiation-related protein (ADRP), a lipid droplet-associated protein. Different steps of HCV life cycle were assessed in HCV-infected human Huh-7 hepatoma cells overexpressing ADRP upon transduction with a lentiviral vector. HCV infection increased ADRP mRNA and protein expression levels by 2- and 1.5-fold, respectively. The overexpression of ADRP led to an increase of (i) the surface of lipid droplets, (ii) the total cellular neutral lipid content (2.5- and 5-fold increase of triglycerides and cholesterol esters, respectively), (iii) the cellular free cholesterol level (5-fold) and (iv) the HCV particle production and infectivity (by 2- and 3.5-fold, respectively). The investigation of different steps of the HCV life cycle indicated that the ADRP overexpression, while not affecting the viral replication, promoted both virion egress and entry (~12-fold), the latter possibly via an increase of its receptor occludin. Moreover, HCV infection induces an increase of both ADRP and occludin expression. In HCV infected cells, the occludin upregulation was fully prevented by the ADRP silencing, suggesting a specific, ADRP-dependent mechanism. Finally, in HCV-infected human livers, occludin and ADRP mRNA expression levels correlated with each other. Alltogether, these findings show that HCV induces ADRP, which in turns appears to confer a favorable environment to viral spread.


Subject(s)
Hepacivirus/physiology , Hepatitis C/genetics , Hepatitis C/metabolism , Host-Pathogen Interactions , Liver/virology , Membrane Proteins/genetics , Occludin/genetics , Cell Line, Tumor , Humans , Lipid Droplets/metabolism , Lipid Droplets/virology , Lipid Metabolism , Liver/metabolism , Membrane Proteins/metabolism , Occludin/metabolism , Perilipin-2 , RNA, Messenger/genetics , Up-Regulation , Virus Replication
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