[1]Biochemical and transcriptome analyses of a novel chlorophyll-deficient chlorina tea plant cultivar. Wang, Lu,Yue, Chuan,Cao, Hongli,Zhou, Yanhua,Zeng, Jianming,Yang, Yajun,Wang, Xinchao,Wang, Lu,Zeng, Jianming,Yang, Yajun,Wang, Xinchao,Wang, Lu,Yue, Chuan,Cao, Hongli,Zhou, Yanhua,Zeng, Jianming,Yang, Yajun,Wang, Xinchao. 2014

[2]iTRAQ-Based Comparative Proteomic Analysis of Seedling Leaves of Two Upland Cotton Genotypes Differing in Salt Tolerance. Wenfang Gong,Feifei Xu,Du, Xiongming,Junling Sun,Zhen Peng,Shoupu He,Zhaoe Pan,Xiongming Du. 2017

[3]Proteomic Analysis of Chicken Skeletal Muscle during Embryonic Development. Ouyang, Hongjia,Wang, Zhijun,Chen, Xiaolan,Yu, Jiao,Li, Zhenhui,Nie, Qinghua,Ouyang, Hongjia,Wang, Zhijun,Chen, Xiaolan,Yu, Jiao,Li, Zhenhui,Nie, Qinghua,Ouyang, Hongjia,Wang, Zhijun,Chen, Xiaolan,Yu, Jiao,Li, Zhenhui,Nie, Qinghua. 2017

[4]iTRAQ-Based Quantitative Proteomic Analysis of the Potentiated and Dormant Antler Stem Cells. Dong, Zhen,Ba, Hengxing,Zhang, Wei,Li, Chunyi,Dong, Zhen,Ba, Hengxing,Zhang, Wei,Li, Chunyi,Coates, Dawn. 2016

[5]iTRAQ-based quantitative proteomics analysis of rice leaves infected by Rice stripe virus reveals several proteins involved in symptom formation. Hajano, Jamal-U-Ddin,Wang, Xifeng,Ren, Yingdang,Lu, Chuantao. 2015

[6]iTRAQ-based analysis of developmental dynamics in the soybean leaf proteome reveals pathways associated with leaf photosynthetic rate. Qin, Jun,Wang, Fengmin,Zhang, Mengchen,Xu, Jin,Zhang, Jianan,Liu, Duan,Yin, Changcheng,Chen, Hao,Chen, Pengyin,Qin, Jun,Ma, Jinbing,Zhang, Bo.

[7]iTRAQ-based quantitative proteomic analysis of midgut in silkworm infected with Bombyx mori cytoplasmic polyhedrosis virus. Gao, Kun,Deng, Xiang-Yuan,Shang, Meng-Ke,Qin, Guang-Xing,Hou, Cheng-Xiang,Guo, Xi-Jie.

[8]Comparative proteomic analyses provide novel insights into the effects of grafting wound and hetero-grafting per se on bottle gourd. Wang, Lingping,Li, Guojing,Wu, Xiaohua,Xu, Pei,Li, Guojing,Xu, Pei.

[9]Isolation and expression analysis of 18 CsbZIP genes implicated in abiotic stress responses in the tea plant (Camellia sinensis). Cao, Hongli,Wang, Lu,Yue, Chuan,Hao, Xinyuan,Wang, Xinchao,Yang, Yajun,Wang, Lu,Hao, Xinyuan,Wang, Xinchao,Yang, Yajun,Cao, Hongli,Wang, Lu,Yue, Chuan,Hao, Xinyuan,Wang, Xinchao,Yang, Yajun.

[10]Molecular cloning and expression analysis of tea plant aquaporin (AQP) gene family. Yue, Chuan,Cao, Hongli,Wang, Lu,Zhou, Yanhua,Hao, Xinyuan,Zeng, Jianming,Wang, Xinchao,Yang, Yajun,Wang, Lu,Zeng, Jianming,Wang, Xinchao,Yang, Yajun,Yue, Chuan,Cao, Hongli,Wang, Lu,Zhou, Yanhua,Hao, Xinyuan,Zeng, Jianming,Wang, Xinchao,Yang, Yajun.

[11]Identification of the invertase gene family (INVs) in tea plant and their expression analysis under abiotic stress. Qian, Wenjun,Wang, Yuchun,Xiao, Bin,Yang, Yajun,Qian, Wenjun,Yue, Chuan,Wang, Yuchun,Cao, Hongli,Li, Nana,Wang, Lu,Hao, Xinyuan,Wang, Xinchao,Yang, Yajun,Yue, Chuan,Cao, Hongli.

[12]Identification of a novel bZIP transcription factor in Camellia sinensis as a negative regulator of freezing tolerance in transgenic arabidopsis. Wang, Lu,Cao, Hongli,Qian, Wenjun,Yao, Lina,Hao, Xinyuan,Li, Nana,Yang, Yajun,Wang, Xinchao,Wang, Lu,Hao, Xinyuan,Yang, Yajun,Wang, Xinchao,Qian, Wenjun.

[13]Effects of exogenous TIBA on dwarfing, shoot branching and yield of tea plant (Camellia sinensis L.). Zhang, Liping,Yan, Peng,Shen, Chen,Zhang, Lan,Wei, Jipeng,Li, Xin,Han, Wenyan,Shen, Chen,Wei, Jipeng,Xu, Huanxin. 2017

[14]Genetic improvement and breeding of tea plant (Camellia sinensis) in China: from individual selection to hybridization and molecular breeding. Chen, Liang,Zhou, Zhi-Xiu,Yang, Ya-Jun. 2007

[15]iTRAQ-proteomics and bioinformatics analyses of mammary tissue from cows with clinical mastitis due to natural infection with Staphylococci aureus. Huang, Jinming,Luo, Guojing,Zhang, Zijing,Wang, Xiuge,Ju, Zhihua,Qi, Chao,Zhang, Yan,Wang, Changfa,Li, Rongling,Li, Jianbin,Yin, Weijun,Zhong, Jifeng,Luo, Guojing,Zhang, Zijing,Xu, Yinxue,Moisa, Sonia J.,Loor, Juan J.,Loor, Juan J.,Moisa, Sonia J.,Loor, Juan J.. 2014

[16]Proteomic Analysis of Differences in Fiber Development between Wild and Cultivated Gossypium hirsutum L.. Yuan Qin,Yu, Shuxun,Hengling Wei,Huiru Sun,Pengbo Hao,Hantao Wang,Junji Su,Shuxun Yu.

[17]Comparative Proteomic Analysis of Gossypium thurberi in Response to Verticillium dahliae Inoculation. Weiping Fang,Deyi Xie,Heqin Zhu,Wu Li,Zhenzhen Xu,Lirong Yang,Zhifang Li,Li Sun,Jinxia Wang,Lihong Nie,Zhongjie Tang,Shuping Lv,Fu’an Zhao,Yao Sun,Yuanming Zhao,Jianan Hou,Xiaojie Yang. 2015

[18]iTRAQ Protein Profile Differential Analysis between Somatic Globular and Cotyledonary Embryos Reveals Stress, Hormone, and Respiration Involved in Increasing Plant let Regeneration of Gossypium hirsutum L.. Xiaoyang Ge,Chaojun Zhang,Qianhua Wang,Zuoren Yang,Ye Wang,Xueyan Zhang,Zhixia Wu,Yuxia Hou,Jiahe Wu,Fuguang Li.

[19]Unraveling the Root Proteome Changes and Its Relationship to Molecular Mechanism Underlying Salt Stress Response in Radish (Raphanus sativus L.). Sun, Xiaochuan,Wang, Yan,Xu, Liang,Li, Chao,Zhang, Wei,Luo, Xiaobo,Jiang, Haiyan,Liu, Liwang,Sun, Xiaochuan,Sun, Xiaochuan,Wang, Yan,Xu, Liang,Luo, Xiaobo,Liu, Liwang. 2017

[20]Long photoperiod affects the maize transition from vegetative to reproductive stages: a proteomic comparison between photoperiod-sensitive inbred line and its recurrent parent. Tian, Lei,Wang, Shunxi,Song, Xiaoheng,Liu, Ping,Chen, Zan,Chen, Yanhui,Wu, Liuji,Tian, Lei,Wang, Shunxi,Song, Xiaoheng,Liu, Ping,Chen, Zan,Chen, Yanhui,Wu, Liuji,Tian, Lei,Wang, Shunxi,Song, Xiaoheng,Liu, Ping,Chen, Zan,Chen, Yanhui,Wu, Liuji,Zhang, Jun. 2018