1.Effect of Active Components from Lycii Cortex on Proliferation of High Glucose?induced Glomerular Mesangial Cells and Extracel-lular Matrix
Ying ZHOU ; Wenxia PI ; Baochang CAI ; Wenwang ZHAO ; Pujun HUANG
Journal of Nanjing University of Traditional Chinese Medicine 2015;(5):465-468
ABSTRACTOBJECTIVE To observe the effect of active components from Lycii cortex on the proliferation of high glucose?in-duced glomerular mesangial cells GMCs and the secretion of extracellular matrix ECM.To investigate the protective mechanism of diabetic nephropathy.METHODS GMCs were cultured and divided into high glucose groupfinal glucose con-centration of 30 mmol/Lblank groupfinal glucose concentration of 5.5 mmol/Lbetaine and kaempferol groups of 5 dif-ferent concentrations of 0.010.1110100 μmol/L.The proliferation of high glucose?induced GMCs were observed by MTT method and secretion of ECM was detected by ELISA assay.RESULTS Different doses of betaine and kaempferol inhib-ited the proliferation of GMCsand decreased the content of ECMcompared with high glucose group P < 0.05 ~ 0.01. CONCLUSION Betaine and kaempferol can protect the high glucose?induced GMCs through inhibiting the proliferation of GMCs and decreasing the content of ECM.
2.Effects of glycyrrhiza extract on pharmacokinetics property of daphnetin in rats.
Letian CHEN ; Liuqing DI ; Hui LIU ; Jinjun SHAN ; Xiaoli ZHAO ; Wei ZHOU ; Baochang CAI
China Journal of Chinese Materia Medica 2011;36(7):935-938
OBJECTIVETo research the influence of glycyrrhiza extract on the pharmacokinetics characteristic parameters of daphnetin, which was aimed to explore the rationality of concert application of drugs.
METHODThe rats received intragastric administration of daphnetin and glycyrrhiza extract containing the same daphnetin respectively. The blood concentration of daphnetin was assayed by LC-MS. The data was processed by program DAS2.1.1.
RESULTGlycyrrhiza extract can reduce the t(1/2), tmax and Ke of daphnetin, while increased the Ka and AUC(0-infinity).
CONCLUSIONGlycyrrhiza extract promoted the oral absorption of daphnetin, slowed down the elimination and increased the biological availability.
Animals ; Drug Interactions ; Drugs, Chinese Herbal ; pharmacology ; Glycyrrhiza ; chemistry ; Rats ; Rats, Sprague-Dawley ; Tissue Distribution ; drug effects ; Umbelliferones ; pharmacokinetics
3.Speed up to formulate "National processing procedures of prepared slices of Chinese crude drugs", unified the national standards of prepared slices.
Jiangyong YU ; Boyang YU ; Zhongzhi QIAN ; Fucheng ZHOU ; Shangmei SHI ; Baochang CAI ; Yongqing XIAO ; Yuzhen REN
China Journal of Chinese Materia Medica 2011;36(19):2751-2754
The prepared slices of Chinese crude drugs are growing important in recent years, and faced with new developments and opportunities. The author analyzed the importance of formulate national processing procedures of prepared slices of Chinese crude drugs combined actual work, proposed the overall objectives and tasks for the formulation, and emphasized to need to correctly deal with several important factors during the process of formulate "National processing procedures of prepared slices of Chinese crude drugs", unified the national standards of prepared slices, solved the real problems that the prepared slices of Chinese crude drugs industry faced.
Chemistry, Pharmaceutical
;
methods
;
standards
;
China
;
Drugs, Chinese Herbal
;
chemistry
;
Humans
;
Medicine, Chinese Traditional
;
methods
;
standards
4. Xiaoke Decoction in treatment of type II diabetes: A Meta-analysis
Baochang ZHOU ; Cunxia REN ; Minhui LI ; Wenfang GUO ; Minhui LI ; Guoqing ZHANG ; Minhui LI ; Minhui LI ; Minhui LI ; Minhui LI ; Minhui LI
Chinese Herbal Medicines 2022;14(1):130-141
Objective: To systematically evaluate the clinical effect of Xiaoke Decoction in the treatment of type 2 diabetes. Methods: Chinese databases such as CNKI, Wanfang, Weipu Chinese Biomedical Journal Database, and Chinese Medical Biological Literature Database, PubMed, Cochrane Library, Embase, and Web of Science were searched for English language literature from their inception until November 2019. A Meta-analysis was performed using RevMan 5.3 and Stata 12.0. Results: Thirty-eight studies were included in this study, with a total of 3757 patients. It was found that adding Xiaoke Decoction could improve total efficiency. The Xiaoke Decoction groups surpassed the western medicine groups regarding improvement in total efficiency (OR = 3.49; 95% CI: 2.78–4.39, P < 0.00001). Adding Xiaoke Decoction could lower the fasting plasma glucose (FPG) level. The Xiaoke Decoction groups surpassed the western medicine groups regarding reduction in FPG levels (MD = −1.14; 95% CI: −1.36 to 0.92, P < 0.00001). Adding Xiaoke Decoction could lower the 2 h postprandial blood glucose (2hPG) level. The Xiaoke Decoction groups surpassed the western medicine groups regarding reduction in 2hPG (MD = −1.40; 95% CI: −1.61 to 1.19, P < 0.00001). Adding Xiaoke Decoction could lower glycated hemoglobin (HbA1c). The Xiaoke Decoction groups surpassed the western medicine groups regarding reduction in HbA1c (MD = −0.77; 95% CI: −0.95 to 0.58, P < 0.00001). It was found that adding Xiaoke Decoction could lower the traditional Chinese medicine (TCM) syndrome score. The TCM syndrome scores among patients in the Xiaoke Decoction group were lower than those among patients in the control group after treatment (MD = −4.90; 95% CI: −7.22 to 2.57, P < 0.0001). At the same time, we conducted a subgroup and sensitivity analysis of age and intervention duration on the heterogeneity of total efficiency, FPG, 2hPG, HbAlc, and TCM syndrome score outcome indicators. For detecting publication bias, an egger test was conducted. Conclusion: Compared with western medicine alone, Xiaoke Decoction has more advantages for the treatment of type 2 diabetes with respect to total efficiency, FPG, 2hPG, HbAlc, and TCM syndrome score.
5. Assessment of pulmonary infectious disease treatment with Mongolian medicine formulae based on data mining, network pharmacology and molecular docking
Baochang ZHOU ; Zhanhong QIAN ; Minhui LI ; Qinyu LI ; Minhui LI ; Yuan GAO ; Minhui LI ; Minhui LI
Chinese Herbal Medicines 2022;14(3):432-448
Objective: Pulmonary infectious diseases (PID) include viral pneumonia (VP) and pulmonary tuberculosis (PT). Mongolian medicine (MM) is an effective treatment option in China, however, the core group medicines (CGMs) in the treatment of PID and their underlying therapeutic mechanisms remain unclear. In this study, through the method of data mining, the CGMs of MM for the treatment of PID were excavated, and the possible mechanism of action of the CGMs in the treatment of PID was explored by using network pharmacology. Methods: First, 89 MM formulae for the treatment of pulmonary infectious diseases collected from Gan Lu Si Bu, Meng Yi Jin Kui, People's Republic of China Ministry of Health Drug Standards (Mongolian Medicine Volume), Standard of Mongolian Medicine Preparations in Inner Mongolia (2007 Edition), and Standard of Mongolian Medicine Preparations in Inner Mongolia (2014 Edition). The CGMs of MM for PID were excavated through association rule analysis and cluster analysis. Then, the active ingredients and potential targets of the CGMs were obtained from TCMSP, TCMIP, BATMAN-TCM databases. PID targets information was collected from OMIM, GeneCards, and DrugBank databases. The possible targets of CGMs treatment for PID were obtained by intersection. The PPI network was constructed through the STRING database, and the topology analysis of the network was performed. Through the enrichment analysis of the intersection targets by R language, the main action pathways and related target proteins of CGMs in the treatment of PID were screened out. The results were verified by molecular docking. Results: A total of 89 formulae were included, involving 164 MM herbs. The efficacy of the drugs was mainly cough-suppressing and panting-calming herbs, and heat-clearing herbs. The nature and flavor were mainly bitter and cold. The CGMs of MM to treatment of PID was excavated as the classic famous formula Sanzi Decoction (Toosendan Fructus-Chebulae Fructus-Gardeniae Fructus). A total of 28 candidate components and 237 predicted targets of CGMs were collected, and 61 common targets with PID were obtained, including key compounds such as quercetin, kaempferol, β-sitosterol and stigmastero and key targets such as VEGFA, IL6, TP53, AKT1. KEGG enrichment analysis yielded AGE-RAGE signaling pathways, IL-17 signaling pathways, and TNF signaling pathways. Molecular docking results showed that the key targets were well matched with the potential active ingredients of CGMs. Conclusion: This study found that MM commonly used cough-suppressing and panting-calming herbs in combination with heat-clearing herbs to treat PID, and the CGMs for the treatment of PID is “Toosendan Fructus-Chebulae Fructus-Gardeniae Fructus”. CGMs mainly play a role in the treatment of PID by acting on VEGFA, IL6, TP53, AKT1 and other targets, regulating AGE-RAGE signaling pathways, IL-17 signaling pathways, and TNF signaling pathways.
6.Complete genome sequences of the SARS-CoV: the BJ Group (Isolates BJ01-BJ04).
Shengli BI ; E'de QIN ; Zuyuan XU ; Wei LI ; Jing WANG ; Yongwu HU ; Yong LIU ; Shumin DUAN ; Jianfei HU ; Yujun HAN ; Jing XU ; Yan LI ; Yao YI ; Yongdong ZHOU ; Wei LIN ; Hong XU ; Ruan LI ; Zizhang ZHANG ; Haiyan SUN ; Jingui ZHU ; Man YU ; Baochang FAN ; Qingfa WU ; Wei LIN ; Lin TANG ; Baoan YANG ; Guoqing LI ; Wenming PENG ; Wenjie LI ; Tao JIANG ; Yajun DENG ; Bohua LIU ; Jianping SHI ; Yongqiang DENG ; Wei WEI ; Hong LIU ; Zongzhong TONG ; Feng ZHANG ; Yu ZHANG ; Cui'e WANG ; Yuquan LI ; Jia YE ; Yonghua GAN ; Jia JI ; Xiaoyu LI ; Xiangjun TIAN ; Fushuang LU ; Gang TAN ; Ruifu YANG ; Bin LIU ; Siqi LIU ; Songgang LI ; Jun WANG ; Jian WANG ; Wuchun CAO ; Jun YU ; Xiaoping DONG ; Huanming YANG
Genomics, Proteomics & Bioinformatics 2003;1(3):180-192
Beijing has been one of the epicenters attacked most severely by the SARS-CoV (severe acute respiratory syndrome-associated coronavirus) since the first patient was diagnosed in one of the city's hospitals. We now report complete genome sequences of the BJ Group, including four isolates (Isolates BJ01, BJ02, BJ03, and BJ04) of the SARS-CoV. It is remarkable that all members of the BJ Group share a common haplotype, consisting of seven loci that differentiate the group from other isolates published to date. Among 42 substitutions uniquely identified from the BJ group, 32 are non-synonymous changes at the amino acid level. Rooted phylogenetic trees, proposed on the basis of haplotypes and other sequence variations of SARS-CoV isolates from Canada, USA, Singapore, and China, gave rise to different paradigms but positioned the BJ Group, together with the newly discovered GD01 (GD-Ins29) in the same clade, followed by the H-U Group (from Hong Kong to USA) and the H-T Group (from Hong Kong to Toronto), leaving the SP Group (Singapore) more distant. This result appears to suggest a possible transmission path from Guangdong to Beijing/Hong Kong, then to other countries and regions.
Genome, Viral
;
Haplotypes
;
Humans
;
Mutation
;
Open Reading Frames
;
Phylogeny
;
SARS Virus
;
genetics
7.A genome sequence of novel SARS-CoV isolates: the genotype, GD-Ins29, leads to a hypothesis of viral transmission in South China.
E'de QIN ; Xionglei HE ; Wei TIAN ; Yong LIU ; Wei LI ; Jie WEN ; Jingqiang WANG ; Baochang FAN ; Qingfa WU ; Guohui CHANG ; Wuchun CAO ; Zuyuan XU ; Ruifu YANG ; Jing WANG ; Man YU ; Yan LI ; Jing XU ; Bingyin SI ; Yongwu HU ; Wenming PENG ; Lin TANG ; Tao JIANG ; Jianping SHI ; Jia JI ; Yu ZHANG ; Jia YE ; Cui'e WANG ; Yujun HAN ; Jun ZHOU ; Yajun DENG ; Xiaoyu LI ; Jianfei HU ; Caiping WANG ; Chunxia YAN ; Qingrun ZHANG ; Jingyue BAO ; Guoqing LI ; Weijun CHEN ; Lin FANG ; Changfeng LI ; Meng LEI ; Dawei LI ; Wei TONG ; Xiangjun TIAN ; Jin WANG ; Bo ZHANG ; Haiqing ZHANG ; Yilin ZHANG ; Hui ZHAO ; Xiaowei ZHANG ; Shuangli LI ; Xiaojie CHENG ; Xiuqing ZHANG ; Bin LIU ; Changqing ZENG ; Songgang LI ; Xuehai TAN ; Siqi LIU ; Wei DONG ; Jun WANG ; Gane Ka-Shu WONG ; Jun YU ; Jian WANG ; Qingyu ZHU ; Huanming YANG
Genomics, Proteomics & Bioinformatics 2003;1(2):101-107
We report a complete genomic sequence of rare isolates (minor genotype) of the SARS-CoV from SARS patients in Guangdong, China, where the first few cases emerged. The most striking discovery from the isolate is an extra 29-nucleotide sequence located at the nucleotide positions between 27,863 and 27,864 (referred to the complete sequence of BJ01) within an overlapped region composed of BGI-PUP5 (BGI-postulated uncharacterized protein 5) and BGI-PUP6 upstream of the N (nucleocapsid) protein. The discovery of this minor genotype, GD-Ins29, suggests a significant genetic event and differentiates it from the previously reported genotype, the dominant form among all sequenced SARS-CoV isolates. A 17-nt segment of this extra sequence is identical to a segment of the same size in two human mRNA sequences that may interfere with viral replication and transcription in the cytosol of the infected cells. It provides a new avenue for the exploration of the virus-host interaction in viral evolution, host pathogenesis, and vaccine development.
Base Sequence
;
China
;
Cluster Analysis
;
Gene Components
;
Genetic Variation
;
Genome, Viral
;
Genotype
;
Molecular Sequence Data
;
Phylogeny
;
Reverse Transcriptase Polymerase Chain Reaction
;
SARS Virus
;
genetics
;
Sequence Analysis, DNA
;
Severe Acute Respiratory Syndrome
;
genetics
8.Herbal Textual Research on Pruni Semen in Famous Classical Formulas
Baochang ZHOU ; Bin HE ; Ye LI ; Guoqing HAN ; Yaqiong BI ; Chunhong ZHANG ; Minhui LI ; Zhilai ZHAN
Chinese Journal of Experimental Traditional Medical Formulae 2023;29(11):1-11
This article has systematically sorted out and verified the name, origin, producing area, quality evaluation, harvesting and processing of Pruni Semen by consulting ancient materia medica, medical books, prescription books and modern literature, in order to provide a basis for the development of famous classical formulas containing Pruni Semen. The results showed that Pruni Semen, as a medicinal material, has been widely used in medical literature of past dynasties since it was collected in Shennong Bencaojing, and also included under the names such as Yuhe, Yuzi and Yuli, and aliases such as Jueli, Queli and Chexiali. The primordial plants mentioned in the past dynasties involve about 12 species of Rosaceae, but with Prunus humilis, P. japonica and P. glandulosa as mainstream varieties used in the past dynasties, while the 2020 edition of Chinese Pharmacopoeia stipulates that the basal plants are P. humilis, P. japonica and P. pedunculata. Most of the ancient records for the origin of Pruni Semen are found everywhere in high mountains, valleys and hills, modern literature records that its origin varies according to its base, for example, P. humilis and P. japonica are mainly produced in Hebei, eastern Inner Mongolia, Liaoning, Shandong and other regions of China, and P. pedunculata is mainly produced in Inner Mongolia. Modern literature summarizes its quality as faint yellow, full and fulfilling, neat and not broken, and non-oiling, and the small Pruni Semen is better than the big Pruni Semen. The ancient processing methods of Pruni Semen mainly include blanching and peeling, blanching and peeling followed by frying, and blanching and peeling followed by pounding, with the common feature of blanching and peeling. The successive editions of Chinese Pharmacopoeia stipulate that it should be pounded when used. Based on the results of the herbal textual research and the writing time of Bianzhenglu, and combined with the market survey of Pruni Semen, it is suggested that P. humilis or P. japonica should be used as the origin of Pruni Semen in Sanpiantang, and it is harvested when the fruits are ripe, the kernels are collected by removing the stones, and processed by blanching, peeling and pounding consulting the decoction method in the current edition of Chinese Pharmacopoeia.