1.HPLC Fingerprints of Compound Yinchen Granules Based on Detection Wavelength Switching Technology
Lixia SHEN ; Yanwei FU ; Songgang JI ; Mingchun LI ; Yanqin CHENG
China Pharmacist 2018;21(10):1769-1775
		                        		
		                        			
		                        			Objective: To establish the HPLC fingerprints of compound Yinchen granules. Methods: The column was Agilent SB-C18(250 mm×4. 6 mm, 5 μm) and the mobile phase was acetonitrile (A)-0. 2% phosphoric acid solution (B) with gradient elution at a flow rate of 1. 0 ml·min-1. The column temperature was 25℃. The detection wavelength switching technology was used in 180-mi-nute elution time. Results: The HPLC fingerprints of compound Yinchen granules were established. Twenty-two common peaks were confirmed, of which five peaks were identified and 18 peaks were assigned to each crude drug. The overall similarity of the fingerprints of 10 batches of samples was 0. 9 or more when compared with the control map. Conclusion: The fingerprints of compound Yinchen granules can provide reference for the overall quality control of compound Yinchen granules.
		                        		
		                        		
		                        		
		                        	
2.Improvement of Quality Standard for Weiling Granules
Yanqin CHENG ; Songgang JI ; Liyan ZHAO ; Mingchun LI
China Pharmacist 2015;18(10):1720-1723
		                        		
		                        			
		                        			Objective:To re-establish the quality control standard for Weiling granules. Methods:The 4 chief herbs in the prepa-ration, radices paeoniae alba, licorice, rhizoma corydalis and hawthorn were identified by TLC qualitatively. The content of paeoniflor-in in radices paeoniae alba was determined by HPLC. The separation was performed on an Agilent XDB-C18 (250 mm × 4. 6 mm, 5μm)coulme with mobile phase consisting of acetonitrile-0. 1% phosphoric acid solution (10:90). The detection wavelength was 230 nm and the flow rate was 1. 0 ml·min-1 . Results:The spots in TLC were clear without any interference. The linear range for paeoni-florin was 0. 151-1. 212 μg(r=0. 999 9,n=5). The average recovery was 99. 63% and RSD was 2. 01%(n=9). Conclusion:The method is simple and accurate with high reproducibility, which can be used for the quality control of Weiling granules.
		                        		
		                        		
		                        		
		                        	
3.Selection of range of regional lymphadenectomy for patients with T2 gallbladder cancer
Jiandong WANG ; Jun SHEN ; Xueping ZHOU ; Xuefeng WANG ; Weibin SHI ; Songgang LI ; Yong YANG ; Zhiwei QUAN
Chinese Journal of Digestive Surgery 2011;10(2):100-102
		                        		
		                        			
		                        			Objective To investigate the efficacy of regional lymphadenectomy for patients with T2 gallbladder cancer. Methods From January 1990 to December 2009, 48 patients with T2 gallbladder cancer received regional lymphadenectomy following radical surgery at the Xinhua Hospital of Shanghai Jiaotong University, and their clinical data were retrospectively analyzed. Patients were divided into two groups according to the range of lymphadenectomy. Standard group (23 patients): lymph nodes in the regions of bile duct, common bile duct and hepatoduodenal ligament were dissected; extended group (25 patients): lymph nodes in the regions of hepatoduodenal ligament, head of pancreas, duodenum, portal vein, common hepatic artery and celiac axis were dissected).The condition of patients in the two groups were compared after the treatment. The morbidity and survival rate were analyzed by using Fisher exact test and Kaplan-Meier method, respectively, and the survival rates between the two groups were compared by using Log-rank test. Results No perioperative death was found in the two groups. The morbidities was 17% (4/23) in the standard group and 24% (6/25) in the extended group, with no significant difference between the two groups ( P > 0.05 ). The 5-year cumulative survival rate and median survival time were 40% and 29.8 months in the standard group, and 66% and 53.2 months in the extended group, with significant differences between the two groups ( x2 = 4. 687, P < 0.05 ). Conclusion Extended regional lymphadenectomy should be performed on patients with T2 gallbladder cancer if the primary lesions can be dissected radically.
		                        		
		                        		
		                        		
		                        	
4.Diagnostic progress in molecular biology of biliary tract malignant tumours
Cuifu FANG ; Songgang LI ; Zhiwei QUAN
International Journal of Surgery 2010;37(7):483-487
		                        		
		                        			
		                        			Biliary tract malignant tumours do not have any special symptom or physical sign in early stages.It is easy to be delayed for diagnosis and it is often very serious when the disease was diagnosised.With the development of technology of molecular biology,the biliary tract malignant tumours' diagnosis in molecular biology has been made some progresses,and it is expected to be possible to diagnose and treat the diseases in early stages.
		                        		
		                        		
		                        		
		                        	
5.Evolutionary Transients in the Rice Transcriptome
Wang JUN ; Zhang JIANGUO ; Li RUIQIANG ; Zheng HONGKUN ; Li JUN ; Zhang YONG ; Li HENG ; Ni PEIXIANG ; Li SONGGANG ; Li SHENGTING ; Wang JINGQIANG ; Liu DONGYUAN ; McDermott JASON ; Samudrala RAM ; Liu SIQI ; Wang JIAN ; Yang HUANMING ; Yu JUN ; Wong Ka-Shu GANE
Genomics, Proteomics & Bioinformatics 2010;08(4):211-228
		                        		
		                        			
		                        			In the canonical version of evolution by gene duplication,one copy is kept unaltered while the other is free to evolve.This process of evolutionary experimentation can persist for millions of years.Since it is so short lived in comparison to the lifetime of the core genes that make up the majority of most genomes,a substantial fraction of the genome and the transcriptome may-in principle-be attributable to what we will refer to as "evolutionarytransients",referring here to both the process and the genes that have gone or are undergoing this process.Using the rice gene set as a test case,we argue that this phenomenon goes a long way towards explaining why there are so many more rice genes than Arabidopsis genes,and why most excess rice genes show low similarity to eudicots.
		                        		
		                        		
		                        		
		                        	
6.Genome organization of the SARS-CoV.
Jing XU ; Jianfei HU ; Jing WANG ; Yujun HAN ; Yongwu HU ; Jie WEN ; Yan LI ; Jia JI ; Jia YE ; Zizhang ZHANG ; Wei WEI ; Songgang LI ; Jun WANG ; Jian WANG ; Jun YU ; Huanming YANG
Genomics, Proteomics & Bioinformatics 2003;1(3):226-235
		                        		
		                        			
		                        			Annotation of the genome sequence of the SARS-CoV (severe acute respiratory syndrome-associated coronavirus) is indispensable to understand its evolution and pathogenesis. We have performed a full annotation of the SARS-CoV genome sequences by using annotation programs publicly available or developed by ourselves. Totally, 21 open reading frames (ORFs) of genes or putative uncharacterized proteins (PUPs) were predicted. Seven PUPs had not been reported previously, and two of them were predicted to contain transmembrane regions. Eight ORFs partially overlapped with or embedded into those of known genes, revealing that the SARS-CoV genome is a small and compact one with overlapped coding regions. The most striking discovery is that an ORF locates on the minus strand. We have also annotated non-coding regions and identified the transcription regulating sequences (TRS) in the intergenic regions. The analysis of TRS supports the minus strand extending transcription mechanism of coronavirus. The SNP analysis of different isolates reveals that mutations of the sequences do not affect the prediction results of ORFs.
		                        		
		                        		
		                        		
		                        			Amino Acid Substitution
		                        			;
		                        		
		                        			Base Composition
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		                        			Base Sequence
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		                        			Computational Biology
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		                        			methods
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		                        			Genome, Viral
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		                        			Isoelectric Point
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		                        			Models, Genetic
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		                        			Molecular Sequence Data
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		                        			Molecular Weight
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		                        			Open Reading Frames
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		                        			SARS Virus
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		                        			genetics
		                        			;
		                        		
		                        			Sequence Analysis
		                        			;
		                        		
		                        			Transcription, Genetic
		                        			
		                        		
		                        	
7.Evolution and variation of the SARS-CoV genome.
Jianfei HU ; Jing WANG ; Jing XU ; Wei LI ; Yujun HAN ; Yan LI ; Jia JI ; Jia YE ; Zhao XU ; Zizhang ZHANG ; Wei WEI ; Songgang LI ; Jun WANG ; Jian WANG ; Jun YU ; Huanming YANG
Genomics, Proteomics & Bioinformatics 2003;1(3):216-225
		                        		
		                        			
		                        			Knowledge of the evolution of pathogens is of great medical and biological significance to the prevention, diagnosis, and therapy of infectious diseases. In order to understand the origin and evolution of the SARS-CoV (severe acute respiratory syndrome-associated coronavirus), we collected complete genome sequences of all viruses available in GenBank, and made comparative analyses with the SARS-CoV. Genomic signature analysis demonstrates that the coronaviruses all take the TGTT as their richest tetranucleotide except the SARS-CoV. A detailed analysis of the forty-two complete SARS-CoV genome sequences revealed the existence of two distinct genotypes, and showed that these isolates could be classified into four groups. Our manual analysis of the BLASTN results demonstrates that the HE (hemagglutinin-esterase) gene exists in the SARS-CoV, and many mutations made it unfamiliar to us.
		                        		
		                        		
		                        		
		                        			Amino Acid Motifs
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		                        			Amino Acid Substitution
		                        			;
		                        		
		                        			Base Composition
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		                        			Codon
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		                        			genetics
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		                        			Computational Biology
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		                        			DNA Mutational Analysis
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		                        			Evolution, Molecular
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		                        			Gene Transfer, Horizontal
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		                        			Genetic Variation
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		                        			Genome, Viral
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		                        			Phylogeny
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		                        			SARS Virus
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		                        			genetics
		                        			
		                        		
		                        	
8.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
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		                        			Mutation
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		                        			Open Reading Frames
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		                        			Phylogeny
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		                        			SARS Virus
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		                        			genetics
		                        			
		                        		
		                        	
9.The R protein of SARS-CoV: analyses of structure and function based on four complete genome sequences of isolates BJ01-BJ04.
Zuyuan XU ; Haiqing ZHANG ; Xiangjun TIAN ; Jia JI ; Wei LI ; Yan LI ; Wei TIAN ; Yujun HAN ; Lili WANG ; Zizhang ZHANG ; Jing XU ; Wei WEI ; Jingui ZHU ; Haiyan SUN ; Xiaowei ZHANG ; Jun ZHOU ; Songgang LI ; Jun WANG ; Jian WANG ; Shengli BI ; Huanming YANG
Genomics, Proteomics & Bioinformatics 2003;1(2):155-165
		                        		
		                        			
		                        			The R (replicase) protein is the uniquely defined non-structural protein (NSP) responsible for RNA replication, mutation rate or fidelity, regulation of transcription in coronaviruses and many other ssRNA viruses. Based on our complete genome sequences of four isolates (BJ01-BJ04) of SARS-CoV from Beijing, China, we analyzed the structure and predicted functions of the R protein in comparison with 13 other isolates of SARS-CoV and 6 other coronaviruses. The entire ORF (open-reading frame) encodes for two major enzyme activities, RNA-dependent RNA polymerase (RdRp) and proteinase activities. The R polyprotein undergoes a complex proteolytic process to produce 15 function-related peptides. A hydrophobic domain (HOD) and a hydrophilic domain (HID) are newly identified within NSP1. The substitution rate of the R protein is close to the average of the SARS-CoV genome. The functional domains in all NSPs of the R protein give different phylogenetic results that suggest their different mutation rate under selective pressure. Eleven highly conserved regions in RdRp and twelve cleavage sites by 3CLP (chymotrypsin-like protein) have been identified as potential drug targets. Findings suggest that it is possible to obtain information about the phylogeny of SARS-CoV, as well as potential tools for drug design, genotyping and diagnostics of SARS.
		                        		
		                        		
		                        		
		                        			Amino Acid Sequence
		                        			;
		                        		
		                        			Base Composition
		                        			;
		                        		
		                        			Base Sequence
		                        			;
		                        		
		                        			Cluster Analysis
		                        			;
		                        		
		                        			Computational Biology
		                        			;
		                        		
		                        			Conserved Sequence
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		                        			genetics
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		                        			Evolution, Molecular
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		                        			Gene Components
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		                        			Genome, Viral
		                        			;
		                        		
		                        			Molecular Sequence Data
		                        			;
		                        		
		                        			Mutation
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		                        			genetics
		                        			;
		                        		
		                        			Phylogeny
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		                        			Protein Structure, Tertiary
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		                        			RNA Replicase
		                        			;
		                        		
		                        			genetics
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		                        			SARS Virus
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		                        			genetics
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		                        			Sequence Analysis, DNA
		                        			
		                        		
		                        	
10.The E protein is a multifunctional membrane protein of SARS-CoV.
Qingfa WU ; Yilin ZHANG ; Hong LÜ ; Jing WANG ; Ximiao HE ; Yong LIU ; Chen YE ; Wei LIN ; Jianfei HU ; Jia JI ; Jing XU ; Jie YE ; Yongwu HU ; Wenjun CHEN ; Songgang LI ; Jun WANG ; Jian WANG ; Shengli BI ; Huanming YANG
Genomics, Proteomics & Bioinformatics 2003;1(2):131-144
		                        		
		                        			
		                        			The E (envelope) protein is the smallest structural protein in all coronaviruses and is the only viral structural protein in which no variation has been detected. We conducted genome sequencing and phylogenetic analyses of SARS-CoV. Based on genome sequencing, we predicted the E protein is a transmembrane (TM) protein characterized by a TM region with strong hydrophobicity and alpha-helix conformation. We identified a segment (NH2-_L-Cys-A-Y-Cys-Cys-N_-COOH) in the carboxyl-terminal region of the E protein that appears to form three disulfide bonds with another segment of corresponding cysteines in the carboxyl-terminus of the S (spike) protein. These bonds point to a possible structural association between the E and S proteins. Our phylogenetic analyses of the E protein sequences in all published coronaviruses place SARS-CoV in an independent group in Coronaviridae and suggest a non-human animal origin.
		                        		
		                        		
		                        		
		                        			Amino Acid Sequence
		                        			;
		                        		
		                        			Base Sequence
		                        			;
		                        		
		                        			Cluster Analysis
		                        			;
		                        		
		                        			Codon
		                        			;
		                        		
		                        			genetics
		                        			;
		                        		
		                        			Gene Components
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		                        			Genome, Viral
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		                        			Membrane Glycoproteins
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		                        			metabolism
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		                        			Membrane Proteins
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		                        			genetics
		                        			;
		                        		
		                        			metabolism
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		                        			Molecular Sequence Data
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		                        			Phylogeny
		                        			;
		                        		
		                        			Protein Conformation
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		                        			SARS Virus
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		                        			genetics
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		                        			Sequence Alignment
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		                        			Sequence Analysis, DNA
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		                        			Sequence Homology
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		                        			Spike Glycoprotein, Coronavirus
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		                        			Viral Envelope Proteins
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		                        			genetics
		                        			;
		                        		
		                        			metabolism
		                        			
		                        		
		                        	
            
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