[1]Modelling and predicting crop yield, soil carbon and nitrogen stocks under climate change scenarios with fertiliser management in the North China Plain. Zhang, Xubo,Xu, Minggang,Sun, Nan,Zhang, Xubo,Wu, Lianhai,Xiong, Wei,Huang, Shaomin.

[2]Impact of climate change on wheat yield and quality in the Yellow River Basin under RCP8.5 during 2020–2050. Xiao Xu Long,Hui Ju,Jian Dong Wang,Shi Hong Gong,Guang Yong Li. 2022

[3]Enhancing wheat protein through low-water-fertility under climate change without yield penalty. Cong Zhang,Jie Chen,Kelin Hu,Yong He. 2024

[4]Chinese adzuki bean germplasm: 1. Evaluation of agronomic traits. Wang, SM,Redden, RJ,Jiapeng, JPH,Desborough, PJ,Lawrence, PL,Usher, T. 2001

[5]Eco-physiological and Biochemical Responses of Rapeseed (Brassica napus L.) to Abiotic Stresses: Consequences and Mitigation Strategies. Ali Raza. 2021

[6]充分发掘保护利用生物多样性;促进农业可持续发展——《生物多样性与小麦改良》简评. 李祥洲. 1997

[7]The effect of low water content on seed longevity. Hu, CL,Zhang, YL,Tao, M,Hu, XR,Jiang, CY. 1998

[8]Response of wheat germplasm to infestation of english grain aphid (Hemiptera: Aphididae). Li, Fengqi,Chen, Liang,Peng, Junhua,Li, Fengqi,Kong, Lingrang,Liu, Yusheng,Wang, Hezhou,Peng, Junhua.

[9]发展大豆生产;弘扬华夏文明(续三). 郭庆元,李志玉,肖唐华. 2007

[10]Contribution of Drought to Potential Crop Yield Reduction in a Wheat-Maize Rotation Region in the North China Plain. Hu Ya-nan,Xu Yin-long,Pan Jie,Hu Ya-nan,Tang Hua-jun,Liu Ying-jie. 2014

[11]Future climate change, the agricultural water cycle, and. agricultural production in China. Tao, F,Yokozawa, M,Hayashi, Y,Lin, E.

[12]CROP PRODUCTION UNDER COLD STRESS: An understanding of plant responses, acclimation processes, and management strategies. Soualihou Soualiou,Fengying Duan,Xia Li,Wenbin Zhou. 2022

[13]Assessing the impact of climate change in the wheat–maize cropping system across the Huang–Huai–Hai Plain under future climate scenarios. Shirazi S.Z.,Mei X.,Liu B.,Liu Y.. 2022

[14]Both yields of maize and soybean and soil carbon sequestration in typical Mollisols cropland decrease under future climate change: SPACSYS simulation. Liang S.,Sun N.,Longdoz B.,Meersmans J.,Ma X.,Gao H.,Zhang X.,Qiao L.,Colinet G.,Xu M.,Wu L.. 2024

[15]Impacts of climate change on crop production and soil carbon stock in a continuous wheat cropping system in southeast England. Shuo Liang,Nan Sun,Jeroen Meersmans,Bernard Longdoz,Gilles Colinet,Minggang Xu,Lianhai Wu. 2024

[16]Enhancing crop yield and carbon sequestration and greenhouse gas emission mitigation through different organic matter input in the Bohai Rim region: An estimation based on the DNDC-RF framework. Naijie Chang,Di Chen,Yurong Cai,Jianzheng Li,Mengxuan Zhang,Hu Li,Ligang Wang. 2024

[17]Generation and characterization of 24 novel EST derived microsatellites from tea plant (Camellia sinensis) and cross-species amplification in its closely related species and varieties. Zhao, Li-Ping,Liu, Zhen,Chen, Liang,Yao, Ming-Zhe,Wang, Xin-Chao.

[18]Inorganic fertilizer application ensures high crop yields in modern agriculture: A large-scale field case study in Central China. Wang, Weini,Lu, Jianwei,Ren, Tao,Li, Yinshui,Zou, Juan,Su, Wei,Li, Xiaokun,Li, Yinshui,Zou, Juan. 2012

[19]Conditional QTL mapping of protein content in wheat with respect to grain yield and its components. Wang, Lin,Cui, Fa,Jun, Li,Ding, Anming,Zhao, Chunhua,Li, Xingfeng,Feng, Deshun,Gao, Jurong,Wang, Honggang,Wang, Lin,Wang, Jinping,Cui, Fa,Zhao, Chunhua,Jun, Li,Ding, Anming.

[20]TEF-7A, a transcript elongation factor gene, influences yield-related traits in bread wheat (Triticum aestivum L.). Zheng, Jun,Liu, Hong,Wang, Yuquan,Zhang, Xueyong,Zheng, Jun,Liu, Hong,Wang, Yuquan,Zhang, Xueyong,Zheng, Jun,Liu, Hong,Wang, Yuquan,Wang, Lanfen,Chang, Xiaoping,Jing, Ruilian,Hao, Chenyang,Zhang, Xueyong,Zheng, Jun.