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10篇 您的检索式:作者名="Junxiao Chen"
    题名 作者 年代 出处 被引量
1GL3.3, a Novel QTL Encoding a GSK3/SHAGGY- like Kinase, Epistatically Interacts with GS3 to Produce Extra-long Grains in Rice显示文摘Duo Xia Nao Zhou Rongjia Liu Wenhan Dan Pingbo Li Bian Wu Junxiao Chen Lingqiang Wang Guanjun Gao Qinglu Zhang Yuqing He 2018Molecular Plant2018,11,5:41
2Genome-wide Association Analyses Reveal the Genetic Basis of Stigma Exsertion in Rice显示文摘耻辱 exsertion,交配系统的米饭的一个关键决定因素,极大地在米饭贡献杂种优势的申请。尽管与耻辱 exsertion 联系的一些量的特点 loci 是印射或克隆的罚款,内在的基因建筑学仍然保持不清楚。我们用在 Oryza sativa 的 533 多样的就职描绘的 650 万 SNP 在耻辱 exsertion 和相关花的特点上执行了染色体宽的协会研究。我们识别了显著地与耻辱 exsertion 和相关特点,其三与三主要谷物尺寸基因 GS3, GW5,和 GW2 co 局部性被联系的 23 genomic loci。进一步的分析显示这三基因由控制小穗状花小穗和耻辱的尺寸和形状影响了耻辱 exsertion。GS3 和 GW5 的联合大部分定义耻辱 exsertion 和相关特点的层次。这二基因的选择在 O 的 subpopulations 之中导致了花的特点的特定的分布。sativa。低耻辱 exsertion 联合 gw5GS3 在栽培米饭变化的一半存在;因此,介绍 GW5gs3 联合进男无菌的线具有为改进混合米饭的种子生产的高潜力。Hao Zhou Pingbo Li WeiboXie Saddam Hussain Yibo Li Duo Xia Hu Zhao Shengyuan Sun Junxiao Chen Hong Ye Jun Hou Da Zhao Guanjun Gao Qinglu Zhang Gongwei Wang Xingming Lian Jinghua Xiao Sibin Yu Xianghua Li Yuqing He 2017Molecular Plant2017,10,4:15
3Two-dimensional optical spatial differentiation and high-contrast imaging显示文摘Optical analog signal processing technology has been widely studied and applied in a variety of science and engineering fields, with the advantages of overcoming the low-speed and high-power consumption associated with its digital counterparts. Much attention has been given to emerging metasurface technology in the field of optical imaging and processing systems. Here, we demonstrate, for the first time, broadband two-dimensional spatial differentiation and high-contrast edge imaging based on a dielectric metasurface across the whole visible spectrum. This edge detection method works for both intensity and phase objects simply by inserting the metasurface into a commercial optical microscope. This highly efficient metasurface performing a basic optical differentiation operation opens up new opportunities in applications of fast,compactible and power-efficient ultrathin devices for data processing and biological imaging.Junxiao Zhou Haoliang Qian Junxiang Zhao Min Tang Qianyi Wu Ming Lei Hailu Luo Shuangchun Wen Shaochen Chen Zhaowei Liu 2021National Science Review2021,8,6:6
4Overcoming oral insulin delivery barriers: application of cell penetrating peptide and silica-based nanoporous composites显示文摘Huining HE Junxiao YE Jianyong SHENG Jianxin WANG Yongzhuo HUANG Guanyi CHEN Jingkang WANG Victor C YANG 2013Frontiers of Chemical Science and Engineering2013,7,1:3
5Ultrasound-mediated targeted microbubbles: a new vehicle for cancer therapy显示文摘Junxiao YE Huining HE Junbo GONG Weibing DONG Yongzhuo HUANG Jianxin WANG Guanyi CHEN Victor C YANG 2013Frontiers of Chemical Science and Engineering2013,7,1:2
6Lead and Cadmium Synergistically Enhance the Expression of Divalent Metal Transporter 1 Protein in Central Nervous System of Developing Rats显示文摘Chengwu Gu Songjian Chen Xijin Xu Liangkai Zheng Yan Li Kusheng Wu Junxiao Liu Zongli Qi Dai Han Gangjian Chen Xia Huo 2009Neurochemical Research2009,,6:1
7Sensitized chemiluminescence reaction between hydrogen peroxide and periodate of different types of Mn-doped ZnS quantum dots显示文摘In this work,different types of Mn-doped ZnS QDs were prepared and applied to study of the chemiluminescence reaction of hydrogen peroxide and periodate. The effects of the size of nanoparticles,shell protection and the stabilizing agents on chemilu-minescence intensity were studied. The results indicated that the size of quantum dots was not the only factor to enhance the intensity of chemiluminescence system. Different stabilizing agents and the silica film protection will also influence the performance of the quantum dots in the chemiluminescence reaction. A CL spectrum was examined by using a series of high-energy cut-off optical filters and a possible mechanism of the CL was also proposed.LIU JunXiao CHEN Hui LIN Ling LU Chao LIN JinMing 2010Chinese Science Bulletin2010,55,30:1
8Enhancing the HSV-1-mediated antitumor immune response by suppressing Bach1显示文摘Background In 2015,herpes simplex virus 1(HSV-1)-derived talimogene laherparepvec(T-VEC)was the first oncolytic virus approved by the US Food and Drug Administration as a therapeutic agent for cancer treatment.However,its antitumor application is limited to local treatment of melanoma,and there is a lack of understanding of the mechanisms underlying the regulation of HSV-1 replication in cancer cells and the associated antitumor immunity.We hypothesized that increasing the replication capacity of HSV-1 in tumor cells would enhance the antitumor effect of this virus.Methods We systematically identified IFN-stimulated genes induced by HSV-1 by performing functional screens and clarified the mechanism by which BACH1 acts against HSV-1.Then,we tested the effect of BACH1 deficiency on immunogenic cell death induced by HSV-1.Furthermore,we investigated the antitumor effect of BACH1 deficiency on HSV-1 in MCA205 and B16 murine tumor models.Results We identified eight IFN-stimulated genes(ISGs)controlling HSV-1 replication,among which BTB and CNC homology 1(BACH1)suppressed HSV-1 replication by inhibiting the transcription of ICP4,ICP27,and UL39.Loss of Bach1 function not only increased HSV-1 proliferation but also promoted HSV-1-induced cell apoptosis,HMGB1 secretion,and calreticulin exposure in tumor cells.More importantly,hemin,an FDA-approved drug known to downregulate BACH1,significantly enhanced HSV-1-mediated antitumor activity with increased T lymphocyte infiltration at the tumor site.Conclusions Our studies uncovered a novel antiviral activity of BACH1 and provided a new strategy for improving the clinical efficiency of the oncolytic virus HSV-1.Chaohu Pan Qiaomei Cai Xiaorong Li Lili Li Liping Yang Yu Chen Junxiao Liu Wancheng Liu Meiling Gao Tianqi Sui Xiaoyang Wang Huiming Fan Jiayin Ruan Yueyue Shi Saihua Chen Lucy S.Cheng Jiayong Liu Heng Yang Genhong Cheng 2022Cellular & Molecular Immunology2022,19,4:0
9Correction to:Enhancing the HSV-1-mediated antitumor immune response by suppressing Bach1显示文摘In the version of this article initially published,a grant name and the acknowledgment information were missing.The grant name and acknowledgment information have been added at the end of Acknowledgments:J.L.is supported by WU Jieping Medical Foundation(320.6750.2021-17-12).We thank Dr.Chunfu Zheng for providing the HSV-1 BAC plasmid.The results and conclusions were not affected.Chaohu Pan Qiaomei Cai Xiaorong Li Lili Li Liping Yang Yu Chen Junxiao Liu Wancheng Liu Meiling Gao Tianqi Sui Xiaoyang Wang Huiming Fan Jiayin Ruan Yueyue Shi Saihua Chen Lucy SCheng Jiayong Liu Heng Yang Genhong Cheng 2022Cellular & Molecular Immunology2022,19,6:0
10Homeoprotein SIX1 compromises antitumor immunity through TGF-β-mediated regulation of collagens显示文摘The tumor microenvironment(TME),including infiltrated immune cells,is known to play an important role in tumor growth;however,the mechanisms underlying tumor immunogenicity have not been fully elucidated.Here,we discovered an unexpected role for the transcription factor SIX1 in regulating the tumor immune microenvironment.Based on analyses of patient datasets,we found that SIX1 was upregulated in human tumor tissues and that its expression levels were negatively correlated with immune cell infiltration in the TME and the overall survival rates of cancer patients.Deletion of Six1 in cancer cells significantly reduced tumor growth in an immune-dependent manner with enhanced antitumor immunity in the TME.Mechanistically,SIX1 was required for the expression of multiple collagen genes via the TGFBR2-dependent Smad2/3 activation pathway,and collagen deposition in the TME hampered immune cell infiltration and activation.Thus,our study uncovers a crucial role for SIX1 in modulating tumor immunogenicity and provides proof-of-concept evidence for targeting SIX1 in cancer immunotherapy.Wancheng Liu Meiling Gao Lili Li Yu Chen Huimin Fan Qiaomei Cai Yueyue Shi Chaohu Pan Junxiao Liu Lucy S.Cheng Heng Yang Genhong Cheng 2021Cellular & Molecular Immunology2021,18,12:0
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