Elucidation of Anti-Obesity Mechanisms of Phenolics in Artemisiae argyi Folium (Aiye) by Integrating LC-MS, Network Pharmacology, and Molecular Docking.
Yongxiang LiuJinhai LuoBaojun XuPublished in: Life (Basel, Switzerland) (2024)
The global prevalence of obesity is a pressing health issue, increasing the medical burden and posing significant health risks to humans. The side effects and complications associated with conventional medication and surgery have spurred the search for anti-obesity drugs from plant resources. Previous studies have suggested that Artemisiae argyi Folium (Aiye) water extracts could inhibit pancreatic lipase activities, control body weight increase, and improve the plasma lipids profile. However, the exact components and mechanisms were not precisely understood. Therefore, this research aims to identify the chemical profile of Aiye and provide a comprehensive prediction of its anti-obesity mechanisms. The water extract of Aiye was subjected to LC-MS analysis, which identified 30 phenolics. The anti-obesity mechanisms of these phenolics were then predicted, employing network pharmacology and molecular docking. Among the 30 phenolics, 21 passed the drug-likeness screening and exhibited 486 anti-obesity targets. The enrichment analysis revealed that these phenolics may combat obesity through PI3K-Akt signaling and MAPK, prolactin, and cAMP signaling pathways. Eight phenolics and seven central targets were selected for molecular docking, and 45 out of 56 docking had a binding affinity of less than -5 kcal/mol. This research has indicated the potential therapy targets and signaling pathways of Aiye in combating obesity.
Keyphrases
- molecular docking
- insulin resistance
- metabolic syndrome
- weight loss
- type diabetes
- signaling pathway
- high fat diet induced
- pi k akt
- weight gain
- molecular dynamics simulations
- body weight
- oxidative stress
- stem cells
- adipose tissue
- mental health
- cell proliferation
- acute coronary syndrome
- minimally invasive
- risk assessment
- coronary artery disease
- body mass index
- molecular dynamics
- atrial fibrillation
- small molecule
- climate change
- fatty acid
- adverse drug
- cell cycle arrest