Background:The molecular mechanism of Chelidonii Herba in treating hepatocellular carcinoma was investigated using network pharmacology and molecular docking validation.Methods:The main active components of Chelidonii...Background:The molecular mechanism of Chelidonii Herba in treating hepatocellular carcinoma was investigated using network pharmacology and molecular docking validation.Methods:The main active components of Chelidonii Herba were screened using the Traditional Chinese Medicine Systems Pharmacology Database and Analysis Platform database,and the targets of these active ingredients were identified using the SwissTargetPrediction platform.Targets related to liver cancer were sourced from GeneCards,Therapeutic Targets Database,and Online Mendelian Inheritance in Man databases.Intersection targets between the active components of Chelidonii Herba and liver cancer were determined using the jvenn online platform.The protein interaction network was analyzed via STRING database and visualized using Cytoscape 3.9.1.Core targets were identified and further analyzed within the protein interaction network.Gene Ontology and Kyoto Encyclopedia of Genes and Genomes enrichment analyses were conducted for the intersection targets using the DAVID database to correlate gene functions.Sankey bubble diagrams for Gene Ontology enrichment analysis and circular diagrams for Kyoto Encyclopedia of Genes and Genomes pathway enrichment analysis were generated using CNSknowall and SangerBox online platforms.Molecular docking and visualization were performed using AutoDockTools 1.5.7 and PyMOL 2.5.7 software,respectively.Overall survival and pan-cancer analysis of core targets were conducted using the GEPIA2 online platform.Results:Twelve active components of Chelidonii Herba were identified through screening.A total of 103 intersection targets and 12 core targets were found between these active constituents of Chelidonii Herba and liver cancer.Chelidonii Herba may exert its effects on liver cancer through these 12 core targets.Several signaling pathways are implicated,including chemical carcinogen-receptor activation,endocrine resistance,HIF-1 signaling pathway,and proteoglycans in cancer.Conclusion:Chelidonii Herba potentially intervenes in cancer-related signaling pathways for treating liver cancer by targeting AKT1,EGFR,and ERBB2.This action is facilitated by active ingredients such as(S)-chrysocorydaline,dihydrochelidonorubin,cryptopine,and oxysanguinarine.Chelidonii Herba may address liver cancer through a mechanism involving multiple components,targets,and pathways.展开更多
In addition to rice (Oryza sativa L.) cultivars, there are three wild rice species, namely O. rufipogon Griff, O. officinalis Wall and O. granulata Baill, in Yunnan Province, China. Each species has different subtyp...In addition to rice (Oryza sativa L.) cultivars, there are three wild rice species, namely O. rufipogon Griff, O. officinalis Wall and O. granulata Baill, in Yunnan Province, China. Each species has different subtypes and ecological distributions. Yunnan wild rice species are excellent genetic resources for developing new rice cultivars. The nutritional components of the husked seeds of wild rice have not been investigated thus far. Herein, we report on the contents of total protein, starch, amylose, 17 amino acids, and five macro and five trace mineral elements in husked seeds from three wild rice species and six O. sativa cultivars. The mean (± SD) protein content in the husked rice of O. rufipogon, O. officinalis, and O. granulata was (14.5 ± 0.6)%, (16.3 ± 1.1)%, and (15.3 ± 0.5)%, respectively. O. officinalis III originating from Gengma had the highest protein content (19.3%). In contrast, the average protein content of six O. sativa cultivars was only 9.15%. The total content of 17 amino acids of three wild rice species was 30%-50% higher than that of the six cultivars. Tyrosine, lysine, and valine content in the three wild rice species was 34%-209% higher than that of the cultivars. However, the difference in total starch content among different O. sativa varieties or types of wild rice species was very small. The average amylose content of O. rufipogon, O. officinalis, and O. granulata was 12.0%, 9.7%, and 11.3%, respectively, much lower than that of the indica and japonica varieties (14.37%-17.17%) but much higher than that of the glutinous rice cultivars (3.89%). The sulfur, phosphorus, magnesium, zinc, and ferrite content in the three wild rice species was 30%-158% higher than that of the six cultivars. The considerable difference in some nutritional components among wild rice species and O. sativa cultivars represents a wide biodiversity of Yunnan Oryza species. Based on the results of the present study, it is predicted that some good genetic traits, especially high protein and ideal amylose content, of Yunnan wild rice species may be useful in improving the nutritional value of rice. This is the first report regarding the amino acid, mineral element, protein and amylose content of husked seeds of some Yunnan wild rice species that have important genetic characteristics for rice quality and nutritional value.展开更多
基金This study was 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)Hubei polytechnic University·Huangshi Daye Lake high-tech Zone University Science Park joint open fund project(23xjz04AK).
文摘Background:The molecular mechanism of Chelidonii Herba in treating hepatocellular carcinoma was investigated using network pharmacology and molecular docking validation.Methods:The main active components of Chelidonii Herba were screened using the Traditional Chinese Medicine Systems Pharmacology Database and Analysis Platform database,and the targets of these active ingredients were identified using the SwissTargetPrediction platform.Targets related to liver cancer were sourced from GeneCards,Therapeutic Targets Database,and Online Mendelian Inheritance in Man databases.Intersection targets between the active components of Chelidonii Herba and liver cancer were determined using the jvenn online platform.The protein interaction network was analyzed via STRING database and visualized using Cytoscape 3.9.1.Core targets were identified and further analyzed within the protein interaction network.Gene Ontology and Kyoto Encyclopedia of Genes and Genomes enrichment analyses were conducted for the intersection targets using the DAVID database to correlate gene functions.Sankey bubble diagrams for Gene Ontology enrichment analysis and circular diagrams for Kyoto Encyclopedia of Genes and Genomes pathway enrichment analysis were generated using CNSknowall and SangerBox online platforms.Molecular docking and visualization were performed using AutoDockTools 1.5.7 and PyMOL 2.5.7 software,respectively.Overall survival and pan-cancer analysis of core targets were conducted using the GEPIA2 online platform.Results:Twelve active components of Chelidonii Herba were identified through screening.A total of 103 intersection targets and 12 core targets were found between these active constituents of Chelidonii Herba and liver cancer.Chelidonii Herba may exert its effects on liver cancer through these 12 core targets.Several signaling pathways are implicated,including chemical carcinogen-receptor activation,endocrine resistance,HIF-1 signaling pathway,and proteoglycans in cancer.Conclusion:Chelidonii Herba potentially intervenes in cancer-related signaling pathways for treating liver cancer by targeting AKT1,EGFR,and ERBB2.This action is facilitated by active ingredients such as(S)-chrysocorydaline,dihydrochelidonorubin,cryptopine,and oxysanguinarine.Chelidonii Herba may address liver cancer through a mechanism involving multiple components,targets,and pathways.
文摘In addition to rice (Oryza sativa L.) cultivars, there are three wild rice species, namely O. rufipogon Griff, O. officinalis Wall and O. granulata Baill, in Yunnan Province, China. Each species has different subtypes and ecological distributions. Yunnan wild rice species are excellent genetic resources for developing new rice cultivars. The nutritional components of the husked seeds of wild rice have not been investigated thus far. Herein, we report on the contents of total protein, starch, amylose, 17 amino acids, and five macro and five trace mineral elements in husked seeds from three wild rice species and six O. sativa cultivars. The mean (± SD) protein content in the husked rice of O. rufipogon, O. officinalis, and O. granulata was (14.5 ± 0.6)%, (16.3 ± 1.1)%, and (15.3 ± 0.5)%, respectively. O. officinalis III originating from Gengma had the highest protein content (19.3%). In contrast, the average protein content of six O. sativa cultivars was only 9.15%. The total content of 17 amino acids of three wild rice species was 30%-50% higher than that of the six cultivars. Tyrosine, lysine, and valine content in the three wild rice species was 34%-209% higher than that of the cultivars. However, the difference in total starch content among different O. sativa varieties or types of wild rice species was very small. The average amylose content of O. rufipogon, O. officinalis, and O. granulata was 12.0%, 9.7%, and 11.3%, respectively, much lower than that of the indica and japonica varieties (14.37%-17.17%) but much higher than that of the glutinous rice cultivars (3.89%). The sulfur, phosphorus, magnesium, zinc, and ferrite content in the three wild rice species was 30%-158% higher than that of the six cultivars. The considerable difference in some nutritional components among wild rice species and O. sativa cultivars represents a wide biodiversity of Yunnan Oryza species. Based on the results of the present study, it is predicted that some good genetic traits, especially high protein and ideal amylose content, of Yunnan wild rice species may be useful in improving the nutritional value of rice. This is the first report regarding the amino acid, mineral element, protein and amylose content of husked seeds of some Yunnan wild rice species that have important genetic characteristics for rice quality and nutritional value.