[1]Low-affinity iron transport protein Uvt3277 is important for pathogenesis in the rice false smut fungus Ustilaginoidea virens. Zheng, Meng-ting,Ding, Hui,Huang, Lei,Wang, Ya-hui,Yu, Mi-na,Zheng, Rui,Yu, Jun-jie,Liu, Yong-feng,Zheng, Meng-ting,Ding, Hui,Huang, Lei,Liu, Yong-feng.

[2]Survey and analysis of simple sequence repeats in the Ustilaginoidea virens genome and the development of microsatellite markers. Yu, Mina,Yu, Junjie,Li, Huanhuan,Wang, Yahui,Yin, Xiaole,Bo, Huiwen,Ding, Hui,Zhou, Yuxin,Liu, Yongfeng,Yu, Mina,Liu, Yongfeng,Bo, Huiwen,Ding, Hui.

[3]Identification of pathogenicity-related genes in the rice pathogen Ustilaginoidea virens through random insertional mutagenesis. Yu, Mina,Yu, Junjie,Hu, Jiankun,Huang, Lei,Wang, Yahui,Yin, Xiaole,Nie, Yafeng,Meng, Xiangkun,Wang, Weiduo,Liu, Yongfeng,Hu, Jiankun,Huang, Lei.

[4]Infection processes of Ustilaginoidea virens during artificial inoculation of rice panicles. Hu, Maolin,Luo, Laixin,Li, Jianqiang,Hu, Maolin,Luo, Laixin,Li, Jianqiang,Wang, Shu,Liu, Yongfeng.

[5]Epiphytic colonization of Ustilaginoidea virens on biotic and abiotic surfaces implies the widespread presence of primary inoculum for rice false smut disease. Guo, X. -Y.,Li, Y.,Li, L.,Xu, Y. -J.,Zhao, J. -Q.,Wang, W.,Guo, X. -Y.,Xiong, H.,Huang, F.,Liu, Y. -F.,Yu, J. -J..

[6]Differential expression profiling of the early response to Ustilaginoidea virens between false smut resistant and susceptible rice varieties. Han, Yanqing,Zhang, Kang,Yang, Jun,Zhang, Nan,Fang, Anfei,Zhang, Yong,Sun, Wenxian,Han, Yanqing,Zhang, Kang,Yang, Jun,Zhang, Nan,Fang, Anfei,Zhang, Yong,Sun, Wenxian,Liu, Yongfeng,Chen, Zhiyi,Hsiang, Tom. 2015

[7]痛风雏鹅肾组织损伤的RNA-seq分析. 邵春荣,黄远丕,黄运茂,应诗家,奚雨萌,施振旦. 2020

[8]基于RNA-seq的两种柳树转录组微卫星特征比较分析. 郑纪伟,周洁,王保松,何旭东. 2019

[9]玉米Glyco-hydro-16糖苷酶家族全基因组的鉴定及其遗传分化. 林峰,葛敏,周玲,赵涵. 2016

[10]热应激下公兔睾丸组织形态和精液转录组分析. 蔡佳炜,张琛,靳荣帅,鲍志远,张希宇,王璠,翟频,赵博昊,陈阳,汤先伟,吴信生. 2023

[11]利用RNA-seq技术分析淹水胁迫下转BnERF拟南芥差异表达基因. 吕艳艳,付三雄,陈松,张唯,戚存扣. 2015

[12]基于海甘蓝RNA-Seq序列开发EST-SSR分子标记. 戚维聪,程计华,黄邦全,李坦,林峰. 2014

[13]Transcriptome-based gene expression profiling identifies differentially expressed genes critical for salt stress response in radish (Raphanus sativus L.). Sun, Xiaochuan,Xu, Liang,Wang, Yan,Luo, Xiaobo,Kinuthia, Karanja Benard,Nie, Shanshan,Feng, Haiyang,Li, Chao,Liu, Liwang,Sun, Xiaochuan,Xu, Liang,Wang, Yan,Nie, Shanshan,Liu, Liwang,Zhu, Xianwen.

[14]Transcriptome and digital gene expression analysis of herbaceous peony (Paeonia lactiflora Pall.) to screen thermo-tolerant related differently expressed genes. Hao, Zhaojun,Tao, Jun,Hao, Zhaojun,Wei, Mengran,Gong, Saijie,Zhao, Daqiu,Tao, Jun,Zhao, Daqiu,Tao, Jun.

[15]De novo transcriptome sequencing of pakchoi (Brassica rapa L. chinensis) reveals the key genes related to the response of heat stress. Xu, Hai,Song, Bo,Chen, Jinfeng,Xu, Hai,Chen, Longzheng,Song, Bo,Fan, Xiaoxue,Yuan, Xihan.

[16]Comprehensive analysis of differentially expressed genes under salt stress in pear (Pyrus betulaefolia) using RNA-Seq. Li, Hui,Lin, Jing,Yang, Qing-Song,Li, Xiao-Gang,Chang, You-Hong.

[17]De novo transcriptome sequencing of Acer palmatum and comprehensive analysis of differentially expressed genes under salt stress in two contrasting genotypes. Rong, Liping,Li, Qianzhong,Li, Shushun,Tang, Ling,Wen, Jing.

[18]RNA-Seq analysis of differentially expressed genes in rice under varied nitrogen supplies. Yang, Shun-ying,Hao, Dong-li,Yang, Guang-zhe,Wang, Li,Su, Yan-hua,Yang, Shun-ying,Hao, Dong-li,Wang, Li,Song, Zhi-zhong.

[19]Transcriptome sequencing analysis of porcine granulosa cells treated with an anti-inhibin antibody. Lei, Mingming,Cai, Liuping,Li, Hui,Chen, Zhen,Shi, Zhendan. 2017

[20]Systemic analysis of gene expression profiles in porcine granulosa cells during aging. Li Hui,Guo Shuangshuang,Yu Jianning,Shi Zhendan. 2017