IFN-β Overexpressing Adipose-Derived Mesenchymal Stem Cells Mitigate Alcohol-Induced Liver Damage and Gut Permeability.
Soonjae HwangYoung Woo EomSeong Hee KangSoon Koo BaikMoon-Young KimPublished in: International journal of molecular sciences (2024)
Alcoholic liver disease (ALD) is a form of hepatic inflammation. ALD is mediated by gut leakiness. This study evaluates the anti-inflammatory effects of ASCs overexpressing interferon-beta (ASC-IFN-β) on binge alcohol-induced liver injury and intestinal permeability. In vitro, ASCs were transfected with a non-viral vector carrying the human IFN-β gene, which promoted hepatocyte growth factor (HGF) secretion in the cells. To assess the potential effects of ASC-IFN-β, C57BL/6 mice were treated with three oral doses of binge alcohol and were administered intraperitoneal injections of ASC-IFN-β. Mice treated with binge alcohol and administered ASC-IFN-β showed reduced liver injury and inflammation compared to those administered a control ASC. Analysis of intestinal tissue from ethanol-treated mice administered ASC-IFN-β also indicated decreased inflammation. Additionally, fecal albumin, blood endotoxin, and bacterial colony levels were reduced, indicating less gut leakiness in the binge alcohol-exposed mice. Treatment with HGF, but not IFN-β or TRAIL, mitigated the ethanol-induced down-regulation of cell death and permeability in Caco-2 cells. These results demonstrate that ASCs transfected with a non-viral vector to induce IFN-β overexpression have protective effects against binge alcohol-mediated liver injury and gut leakiness via HGF.
Keyphrases
- liver injury
- drug induced
- dendritic cells
- immune response
- oxidative stress
- endothelial cells
- growth factor
- cell death
- mesenchymal stem cells
- alcohol consumption
- induced apoptosis
- nlrp inflammasome
- cell cycle arrest
- high fat diet induced
- high glucose
- anti inflammatory
- diabetic rats
- stem cells
- genome wide
- dna methylation
- adipose tissue
- signaling pathway
- bone marrow
- transcription factor
- skeletal muscle
- stress induced
- newly diagnosed
- induced pluripotent stem cells