Background:Essential hypertension affects over a billion people worldwide.Despite the absence of a definitive cure,current treatments primarily aim to manage blood pressure levels.There is a compelling need for antihy...Background:Essential hypertension affects over a billion people worldwide.Despite the absence of a definitive cure,current treatments primarily aim to manage blood pressure levels.There is a compelling need for antihypertensive medications that offer high effectiveness,low toxicity,and minimal side effects.Objective:This study seeks to investigate the antihypertensive properties of Cortex Lycii by employing network pharmacology and validating the findings through molecular docking.Methods:We utilized various platforms and databases related to traditional Chinese medicine to identify the active compounds within Cortex Lycii.Targets associated with hypertension were gathered from well-established disease-related resources.Shared targets were delineated using the EVenn.Subsequently,we conducted GO and KEGG analyses through the DAVID platform and visualized the resultant network with Cytoscape.Molecular docking was carried out using Autodock Vina and PyMOL.Results:Our investigation revealed ten active compounds in Cortex Lycii that demonstrated correlation with 82 essential hypertension-associated targets.These shared targets were categorized into four distinct clusters,each with unique functions.Fourteen hub targets were singled out based on predefined selection criteria.GO analysis unveiled the participation of shared targets in various biological processes linked to hypertension.KEGG analysis identified ten significant signaling pathways associated with hypertension development.Molecular docking analysis provided confirmation of the interaction between the selected hub targets and the active compounds.Conclusion:Cortex Lycii,a traditional Chinese herb with a long history of use,exerts its antihypertensive effects through a combination of active compounds,involvement of multiple targets,regulation of various biological processes,and modulation of key signaling pathways.展开更多
基金supported by Local special projects in major health of Hubei Provincial Science and Technology Department(2022BCE054)Key scientific research projects of Hubei polytechnic University(23xjz08A).
文摘Background:Essential hypertension affects over a billion people worldwide.Despite the absence of a definitive cure,current treatments primarily aim to manage blood pressure levels.There is a compelling need for antihypertensive medications that offer high effectiveness,low toxicity,and minimal side effects.Objective:This study seeks to investigate the antihypertensive properties of Cortex Lycii by employing network pharmacology and validating the findings through molecular docking.Methods:We utilized various platforms and databases related to traditional Chinese medicine to identify the active compounds within Cortex Lycii.Targets associated with hypertension were gathered from well-established disease-related resources.Shared targets were delineated using the EVenn.Subsequently,we conducted GO and KEGG analyses through the DAVID platform and visualized the resultant network with Cytoscape.Molecular docking was carried out using Autodock Vina and PyMOL.Results:Our investigation revealed ten active compounds in Cortex Lycii that demonstrated correlation with 82 essential hypertension-associated targets.These shared targets were categorized into four distinct clusters,each with unique functions.Fourteen hub targets were singled out based on predefined selection criteria.GO analysis unveiled the participation of shared targets in various biological processes linked to hypertension.KEGG analysis identified ten significant signaling pathways associated with hypertension development.Molecular docking analysis provided confirmation of the interaction between the selected hub targets and the active compounds.Conclusion:Cortex Lycii,a traditional Chinese herb with a long history of use,exerts its antihypertensive effects through a combination of active compounds,involvement of multiple targets,regulation of various biological processes,and modulation of key signaling pathways.
