Network


Latest external collaboration on country level. Dive into details by clicking on the dots.

Hotspot


Dive into the research topics where Jiang Shi-jin is active.

Publication


Featured researches published by Jiang Shi-jin.


Veterinary Microbiology | 2012

Genetic characterization of a novel influenza A virus H5N2 isolated from a dog in China

Zhan Guang-jian; Ling Zong-shuai; Zhu Yan-li; Jiang Shi-jin; Xie Zhi-jing

An influenza virus, A/canine/Shandong/JT01/2009, has been isolated from a dog exhibiting classical flu signs in China. HAI and NAI assays subtyped A/canine/Shandong/JT01/2009 as a H5N2 like virus. Phylogenetic reconstructions indicated strong relationships with viruses from various hosts and dispersed geographic locations. These analyses indicate A/canine/Shandong/JT01/2009 is a novel virus generated by complex reassortment of the viral segments.


Veterinary Microbiology | 2015

Molecular characterization of H9N2 influenza virus isolated from mink and its pathogenesis in mink.

Li Peng; Chen Chen; Han Kai-yi; Zhang Feng-xia; Zhu Yan-li; Ling Zong-shuai; Zhang XingXiao; Jiang Shi-jin; Xie Zhi-jing

In mid-August 2013, two H9N2 influenza viruses, named A/mink/Shandong/F6/2013 (Mk/SD/F6/13) and A/mink/Shandong/F10/2013 (Mk/SD/F10/13), were isolated from lung samples of 2 of 45 farmed mink exhibiting respiratory signs in mideastern Shandong province, China. The seroprevalence of antibodies to H9N2 in mink was 20% (53/265). Based on sequence analysis, the eight nucleotide sequences showed 99.7-100% identity between Mk/SD/F6/13 and Mk/SD/F10/13. The HA, NP and NS genes of Mk/SD/F6/13 and Mk/SD/F10/13 were close to A/chicken/Zhejiang/329/2011 (H9N2), the NA and PB1 genes to A/duck/Hunan/S4111/2011 (H9N2), the PA and M genes to A/chicken/Shanghai/C1/2012 (H9N2). However, the PB2 genes had a close relationship with A/Turkey/California/189/66 (H9N2). Based on Sialic acid (SA) receptor detection, a range tissues of the mink demonstrated staining for MAA and/or SNA, and mink could serve as an intermediate host for influenza viruses with pandemic potential for the other animals. Experimental infection of mink demonstrated that mink could be infected by H9N2 influenza viruses and presented mild clinical signs, virus shedding and seroconversion, but no animals died of the disease. It implied that mammalian host-adapted avian H9N2 strains infected mink.


Science China-life Sciences | 2006

The enhancement effect of pp38 gene product on the activity of its upstream bi-directional promoter in Marek's disease virus

Ding Jiabo; Cui Zhi-zhong; Jiang Shi-jin; Reddy Sanjay

There was a bi-directional promoter between gene 38 kd phosphorylated protein (pp38) gene and 1.8-kb mRNA transcript gene family in the genome of Mareks disease virus (MDV). In this study, enhanced green fluorescence protein (EGFP) reporter plamids, pP(pp38)-EGFP and pP(1.8-kb)-EGFP, were constructed under this bi-directional promoter in two directions. The two plasmids were transfected into uninfected chicken embryo fibroblast (CEF), MDV clone rMd5 infected CEF (rMd5-CEF) and pp38-deleted derivative rMd5Δpp38 infected CEF (rMd5Δpp38-CEF) respectively. Transfection analysis showed that EGFP was only expressed in rMd5-CEF, and no EGFP could be detected in uninfected CEF or rMd5Δpp38-CEF, implying that pp38 was a factor influencing the activity of the promoter. The pp38-expressing recombinant plasmid pcDNA-pp38 was constructed to co-transfect CEF or rMd5Δpp38-CEF with pP(pp38)-EGFP or pP(1.8-kb)-EGFP. In this case, EGFP could be detected only in rMd5Δpp38-CEF but still not in uninfected CEF, implying that pp38 needs other protein(s) to work together for the complete trans-acting activity. Another MDV gene, 24 kd phosphorylated protein pp24 gene was cloned into pcDNA3.1 as a pp24-expressing recombinant plasmid pcDNA-pp24. When uninfected CEF was co-transfected with pcDNA-pp38, pcDNA-pp24 and EGFP expressing plasmids pP(pp38)-EGFP or pP(1.8-kb)-EGFP, the EGFP could be detected. These results indicated that pp38 and pp24 could enhance the activity of the promoter when they worked together. DNA mobility shift assay showed that pp38 would bind to the bi-directional promoter with the co-existing of pp24, although neither of them alone influenced mobility of the promoter DNA. All the above suggested that MDV pp38 could transactivate the bi-directional promoter when combined with pp24. The results also indicated that the activity of the promoter in the direction of 1.8-kb mRNA was significantly stronger than that of pp38 direction.


Scientific Reports | 2017

Serotype and virulence genes of Klebsiella pneumoniae isolated from mink and its pathogenesis in mice and mink

Wang Jian-li; Shang Yuan-yuan; Guo Shou-yu; Diao Fei-fei; Yu Jia-yu; Wei Xue-hua; Zhao Yong-feng; Jiang Shi-jin; Xie Zhi-jing

In the study, 15 K. pneumoniae strains were isolated from the mink experiencing respiratory distress in mideastern Shandong province, China, and the prevalence of K. pneumoniae in the sampled mink was 11.9% (15/126). Fourteen (93.33%) of the 15 K. pneumoniae isolates were identified as serotype K2 and hypermucoviscosity phenotype. The 12 virulence-associated genes of the K. pneumoniae isolates were tested. The prevalence of the wabG gene for the isolates were 100% (15/15), the ureA gene 100% (15/15), the rmpA gene 93.33% (14/15), the aerobactin gene 93.33% (14/15), the uge gene 93.33% (14/15), the IucB gene 80% (12/15) and the ybtA gene 13.33% (2/15). But the other five genes, fim, iroNB, wcaG, alls and kfuBC, gave a negative PCR reaction in the 15 isolates, respectively. The animal experiments using K. pneumoniae-SD-12 and K. pneumoniae-SD-21 demonstrated that the serotype K2 was high virulence for mice and mink. These finding implied there exist potential threat that K. pneumoniae pathogens could transmit to human, especially the fur animal farm workers and residents lived near the fur animal farms. Therefore, the etiology and epidemiological surveillance of K. pneumoniae in mink should be strengthened for people’s public health.


Virologica Sinica | 2005

Epidemic Investigation of Co-infection of MDV,CAV and REV in Spontaneous Diseased Chicken Flocks in China

Jiang Shi-jin


Chinese journal of veterinary science | 2009

Epidemic investigation of duck circovirus in spontaneous diseased duck flocks in China

Liu ShaoNing; Zhang XingXiao; Chen Zhi; Gao JiMing; Wei XiuLi; Kong YiBo; Zhu Yan-li; Jiang Shi-jin


Virologica Sinica | 2005

Co-expression and Construction of Eukaryote Plasmid of pp38 and pp24 of Marek′s Disease Virus

Jiang Shi-jin; Yang Han-chun


Chinese Journal of Preventive Veterinary Medicine | 2010

Detection of avian hepatitis E virus RNA by RT-PCR.

Zhao Qin; Zhou En-min; Sun PeiMing; Dong ShiWei; Zhang Lu; Sun Yani; Jiang Shi-jin


Chinese Journal of Preventive Veterinary Medicine | 2012

Serological survey of duck circovirus in meat duck farms from Shandong province

Jiang Shi-jin


Chinese journal of veterinary science | 2011

Development and application of DNA probe of duck circovirus

Jiang Shi-jin

Collaboration


Dive into the Jiang Shi-jin's collaboration.

Top Co-Authors

Avatar

Ding Jiabo

Shandong Agricultural University

View shared research outputs
Top Co-Authors

Avatar

Cui Zhi-zhong

Shandong Agricultural University

View shared research outputs
Top Co-Authors

Avatar

Xie Zhi-jing

Shandong Agricultural University

View shared research outputs
Top Co-Authors

Avatar

Zhang XingXiao

Shandong Agricultural University

View shared research outputs
Top Co-Authors

Avatar

Zhu Yan-li

Shandong Agricultural University

View shared research outputs
Top Co-Authors

Avatar

Zhao Qin

Shandong Agricultural University

View shared research outputs
Top Co-Authors

Avatar

Chen Chen

Shandong Agricultural University

View shared research outputs
Top Co-Authors

Avatar

Chen Zhi

Qingdao Agricultural University

View shared research outputs
Top Co-Authors

Avatar

Diao Fei-fei

Shandong Agricultural University

View shared research outputs
Top Co-Authors

Avatar

Guo Shou-yu

Shandong Agricultural University

View shared research outputs
Researchain Logo
Decentralizing Knowledge