Multiomics Analysis Revealed the Molecular Mechanism of miRNAs in Fluoride-Induced Hepatic Glucose and Lipid Metabolism Disorders.
Yangfei ZhaoYanghuan YuMohammad Mehdi OmmatiJipeng XuJinming WangJianhai ZhangZilong SunRuiyan NiuJinming WangPublished in: Journal of agricultural and food chemistry (2022)
Fluoride-induced liver injury seriously endangers human and animal health and animal food safety, but the underlying mechanism remains unclear. This study aims to explore the mechanism of miRNAs in fluoride-induced hepatic glycolipid metabolism disorders. C57 male mice were used to establish the fluorosis model (22.62 mg/L F - , 12 weeks). The results indicated that fluoride increased fluoride levels, impaired the structure and function, and disrupted the glycolipid metabolism in the liver. Furthermore, the sequencing results showed that fluoride exposure resulted in the differential expression of 35 miRNAs and 480 mRNAs, of which 23 miRNAs were related to glycolipid metabolism. miRNA-mRNA network analyses and RT-PCR revealed that miRNAs mediated fluoride-induced disturbances in the hepatic glycolipid metabolism. Its possible mechanism was to regulate the insulin pathway, PPAR pathway, and FOXO pathway, which in turn affected the bile secretion, the metabolic processes of glucose, the decomposition of lipids, and the synthesis of unsaturated fatty acids in the liver. This study provides a theoretical basis for miRNAs as diagnostic indicators and target drugs for the treatment of fluoride-induced liver injury.
Keyphrases
- drinking water
- fatty acid
- high glucose
- endothelial cells
- diabetic rats
- type diabetes
- public health
- single cell
- drug induced
- healthcare
- mental health
- transcription factor
- insulin resistance
- risk assessment
- skeletal muscle
- blood pressure
- weight loss
- health information
- single molecule
- gestational age
- binding protein
- data analysis
- sensitive detection