RESUMEN
OBJECTIVE： To study the mechanism of couplet medicine of Tripterygium hypoglaucum-Spatholobus suberectus in the treatment of rheumatoid arthritis （RA）. METHODS： The RA targets were retrieved and obtained by therapeutic target database （TTD）， DrugBank and DisGeNET databases， and the protein protein interaction （PPI） network was constructed to screen its key targets. Using oral bioavailability（OB）≥30％， drug like（DL）≥0.18 and drug half-life （HL） ≥4 h as index， active components were obtained from couplet medicine of T. hypoglaucum-S. suberectus by using TCM systematic pharmacological analysis platform （TCMSP） and TCM integrated database （TCMID）， and the targets were predicted. The active component-target network of couplet medicine of T. hypoglaucum-S. suberectus was constructed. Systems Dock Web Site online platform and Genomics platform were used to screen the active component and common targets of RA of couplet medicine of T. hypoglaucum-S. suberectus； KEGG signaling pathways of common targets were analyzed by using Cluego plug-in unit of Cytoscape 3.2.1 software. RESULTS： Totally 1 956 RA targets were retrieved， involving 11 key targets [such as IL-6， TNF， VEGFA]. The couplet medicine contained 30 active components （including luteolin， erythroxanthin， β-sitosterol and triptolide） and 229 targets. There were 37 common targets for couplet medicine of T. hypoglaucum-S. suberectus and RA （including MMP2， TNF， VEGFA）. KEGG signaling way involved cell apoptosis， IL-17 signaling pathway， Th17 cell differentiation pathway and TNF signaling pathway. CONCLUSIONS： The couplet medicine of T. hypoglaucum-S. suberectus may play a role in the treatment of RA by acting on cell apoptosis， IL-17 signaling pathway and other signaling pathways through MMP2， TNF， and VEGFA target. The results of this study can provide a reference for further study on the mechanism of the effects of couplet medicine of T. hypoglaucum-S. suberectus on RA.
RESUMEN
Objective: to observe the protective effect of Swertia Punicea on experimental hepatic injury induced by CCl4 and BCG/LPS respectively. Methods: Mouse models of hepatic injury were induced by CCl4 and BCG/LPS. Serum levels of ALT and AST, MDA content and the pathological changes of hepatic tissue were observed. Results: Swertia Punicea obviously inhibited the rising levels of serum ALT and AST, improved the histological features and relieved hepatic edema induced by CCl4 in mice. However, it has no obvious action on the rising levels of ALT and AST induced by BCG/LPS. It also reduced MDA content and decreased the hepatic index and the splenic index. Conclusion: Swertia Punicea has antioxidation and a protective action on the chemical and immunological hepatic injury, especially on the chemical hepatic injury.