[1]基于RNA-seq的能源植物芒转录组分析. 张贤,王建红,喻曼,曹凯,庄俐,徐昌旭,曹卫东. 2015

[2]基于SNP标记的小麦籽粒性状全基因组关联分析. 张芳,任毅,曹俊梅,李法计,夏先春,耿洪伟. 2021

[3]基于RNA-seq技术开发中间偃麦草基因组特异分子标记. 崔雨,鲍印广,王洪刚,李兴锋. 2016

[4]Genome-Wide Association Analysis Coupled With Transcriptome Analysis Reveals Candidate Genes Related to Salt Stress in Alfalfa (Medicago sativa L.). Fei He,Chunxue Wei,Yunxiu Zhang,Ruicai Long,Mingna Li,Zhen Wang,Qingchuan Yang,Junmei Kang,Lin Chen. 2022

[5]Dissecting the Genetic Mechanisms of Hemicellulose Content in Rapeseed Stalk. Xu, Yinhai,Yang, Yuting,Yu, Wenkai,Liu, Liezhao,Hu, Qiong,Wei, Wenliang,Liu, Jia. 2022

[6]Genome-wide association and RNA-seq analyses identify loci for pod orientation in rapeseed (Brassica napus). Yang Y.,Wang W.,Hu Q.,Raman H.,Liu J.. 2023

[7]Genome-wide association study for phosphate responsive root hair length and density in bread wheat. Saman Maqbool,Fatima Saeed,Ammarah Maqbool,Muhammad Ibrar Khan,Mohsin Ali,Awais Rasheed,Xianchun Xia,Zhonghu He. 2023

[8]Integrating GWAS and transcriptomics to identify candidate genes conferring relative growth rate trait in white-feathered broiler. Peihao Liu,Na Luo,Dawei Liu,Fan Ying,Dan Zhu,Jie Wen,Guiping Zhao,Bingxing An. 2024

[9]ZmBARK1 as a low-temperature tolerance gene in maize germination. Xu, Qingyu,Song, Yiying,Bao, Di,Meng, Lingzhi,Di, Hong,Zhang, Lin,Dong, Ling,Zeng, Xing,Zhang, Jiayue,Li, Chunxiang,Xing, Jiapeng,Zhang, Naifu,Li, Xin,Weng, Jianfeng,Wang, Zhenhua,Zhou, Yu. 2025

[10]Unraveling key genes and pathways involved in Verticillium wilt resistance by integrative GWAS and transcriptomic approaches in Upland cotton. Khan, Majid,Hu, Daowu,Dai, Shuai,Li, Hongge,Peng, Zhen,He, Shoupu,Awais, Muhammad,Du, Xiongming,Geng, Xiaoli. 2025

[11]Unveiling alfalfa root rot resistance genes through an integrative GWAS and transcriptome study. He, Fei,Xu, Ming,Liu, Hao,Xu, Yanchao,Long, Ruicai,Kang, Junmei,Yang, Qingchuan,Chen, Lin. 2025

[12]Genome-Wide Association Integrating a Transcriptomic Meta-Analysis Suggests That Genes Related to Fat Deposition and Muscle Development Are Closely Associated with Growth in Huaxi Cattle. Cheng Li Liu,Tao Ren,Peng Cheng Ruan,Yong Fu Huang,Simone Ceccobelli,De Jun Huang,Lu Pei Zhang,Guang Xin E. 2025

[13]Domestication of Tartary Buckwheat Shaped a Regulatory Module for Seedling Salt Tolerance by Targeting the Magnesium Transporter Gene FtMGT2. Lu, Xiang,He, Yuqi,Weng, Wenfeng,Liu, Zebin,Gao, Yuanfen,Shi, Yaliang,Li, Wei,Lai, Dili,Zhao, Mengyu,Jha, Rintu,Zhao, Hui,Li, Guangsheng,Guan, Chaonan,Shao, Shuai,Ruan, Jingjun,Woo, Sun Hee,Ouyang, Yinan,Quinet, Muriel,Georgiev, Milen I.,Fernie, Alisdair R.,Hou, Congcong,Zhang, Kaixuan,Liu, Xu,Zhou, Meiliang. 2025

[14]Integrative genome-wide association study and transcriptomic analysis to identify candidate genes and pathways for heterophil and lymphocyte traits in white-feathered broilers. Jumei Zheng,Qiao Wang,John F. O'Grady,Zixuan Wang,Man Deng,Jin Zhang,Xiang Li,Yuqing Zhu,David E. MacHugh,Guiping Zhao. 2026

[15]关联分析定位水稻第4号染色体的芒性基因并结合连锁分析精细定位Awn4.1. 胡广隆,张冬玲,潘慧乔,李本,吴建涛. 2010

[16]大麦芒型突变体cal-d的遗传定位. 赵雪芳,张仁旭,张京,高爱农,王春超. 2023

[17]大麦钩芒突变体的遗传解析. 安朝丹,高广奇,杨平,程小毛,蒋枞璁. 2023

[18]Wheat; Lumai 14; Germplasm resource; Strategy for improvement. 韩微波,刘录祥,郭会君,赵林姝,王成社. 2005

[19]Efficient agronomic practices narrow yield gaps and alleviate climate change impacts on winter wheat production in China. Kaiyuan Gong,Liangbing Rong,Yinghua Zhang,Xiao Wang,Fengying Duan,Xia Li,Zhihao He,Tengcong Jiang,Shang Chen,Hao Feng,Qiang Yu,Wenbin Zhou,Jianqiang He. 2025

[20]DeepWheat: predicting the effects of genomic variants on gene expression and regulatory activities across tissues and varieties in wheat using deep learning. Zhigang Ma,Jiazi Zhang,Hongcui Pei,Yanhong Liu,Hongning Tong,Lei Wang,Zefu Lu. 2025