Bulbils of Aerial Yam Attenuate Ethanol-Induced Hepatotoxicity in HepG2 Cells through Inhibition of Oxidative Stress by Activation of the Nuclear Factor Erythroid-2-Related Factor 2 Signaling Pathway.
Dong Kwon YangTsendsuren TungalagHyung-Sub KangPublished in: Nutrients (2024)
Bulbil of yam (BY) extract contains various active compounds possessing many pharmacological properties. However, little is known about the effect and underlying mechanism of BY extract on ethanol-induced liver damage. The present study explored the beneficial potential of BY extract on ethanol-induced hepatotoxicity. To evaluate its effectiveness, ethanol-induced HepG2 liver cells were pretreated with BY extract. BY extract effectively rescued cells from ethanol treatment through inhibition of apoptotic cell death as well as inhibiting expression of mitogen-activated protein kinase (MAPK) proteins as stress inducers. BY extract increased the expression of typical antioxidants. Furthermore, BY extract significantly inhibited mitochondrial dysfunction and endoplasmic reticulum (ER) stress, which are major ROS-inducing factors. Finally, as an underlying mechanism of the protective effects of BY extract on ethanol-induced liver damage, it activated Nrf2 protein through translocation from the cytosol to the nucleus, which in turn activated its target oxidative stress suppressor genes. Collectively, our findings demonstrate that BY extract has potential antioxidative effects in ethanol-induced liver cells and contributes to the establishment of a treatment strategy for alcohol-derived liver injuries.
Keyphrases
- binding protein
- oxidative stress
- diabetic rats
- induced apoptosis
- signaling pathway
- cell death
- high glucose
- anti inflammatory
- drug induced
- dna damage
- ischemia reperfusion injury
- nuclear factor
- randomized controlled trial
- endoplasmic reticulum
- systematic review
- toll like receptor
- endothelial cells
- immune response
- inflammatory response
- poor prognosis
- pi k akt
- small molecule
- long non coding rna
- climate change
- single molecule