[1]Elevated CO2 facilitates C and N accumulation in a rice paddy ecosystem. Guo, Jia,Wang, Xiaowen,Guo, Jia,Zhang, Mingqian,Zhang, Weijian,Zhang, Mingqian,Wang, Xiaowen,Zhang, Weijian.

[2]Future warming-induced phosphorus loss mitigated by land conversion and degradation. Liu L.,Ouyang W.,Zhang W.,Gao X.,He M.,Lin C.. 2022

[3]Effect of Ecological Factors on Nutritional Quality of Foxtail Millet (Setaria italica L.). Ma, Ke,Zhao, Xiatong,Lu, Boyu,Wang, Yiru,Yue, Zhongxiao,Zhang, Liguang,Diao, Xianmin,Yuan, Xiangyang. 2024

[4]Recent Advances to Enhance Nutritional Quality of Rice. Sundus Zafar,Xu Jianlong. 2023

[5]水稻淡褐斑叶突变体lbsll的遗传分析与基因定位. 奉保华,杨杨,施勇烽,林璐,陈洁,黄奇娜,魏彦林,HeiLEUNG,吴建利. 2012

[6]OsBTF3转基因水稻对病原茵侵染的反应和防卫基因的表达分析. 陈华民,吴茂森,何晨阳. 2012

[7]Agronomic biofortification of cayenne pepper cultivars with plant growth-promoting rhizobacteria and chili residue in a chinese solar greenhouse. Ibraheem Olamide Olasupo,Qiuju Liang,Chunyi Zhang,Md Shariful Islam,Yansu Li,Xianchang Yu,Chaoxing He. 2021

[8]Development of a novel nutritional assessment model based on strontium and other compositional factors in apples across seven regions in China. Hong, Tiannuo,Zhao, Zhenyu,Bian, Wenbo,Zhu, Wenqi,Li, Ziqi,Shen, Guohui,Gu, Yanting,Chen, Lu,Guo, Yanzhi. 2023

[9]Differential Effect of Free-Air CO2 Enrichment (FACE) in Different Organs and Growth Stages of Two Cultivars of Durum Wheat. Angie L. Gámez,Xue Han,Iker Aranjuelo. 2023

[10]Elevated atmospheric CO2 delays the key timing for split N applications to improve wheat (Triticum aestivum L.) protein composition. Pan, Yue,Han, Xue,Xu, Huasen,Wu, Wei,Liu, Xiaoming,Li, Yingchun,Xue, Cheng. 2023

[11]Soil organic carbon stability and exogenous nitrogen fertilizer influence the priming effect of paddy soil under long-term exposure to elevated atmospheric CO2. Yu, Hongyan,Han, Mixue,Cai, Chuang,Lv, Fu,Teng, Yue,Zou, Luyi,Ding, Guoqing,Bai, Xuejia,Yao, Junhou,Ni, Kang,Zhu, Chunwu. 2023

[12]The Impact of Climate Change on Rice Spatial Distribution in the Northeast China Plain. Tang, Pengqin. 2012

[13]Interactive Effects of Elevated CO2 and Temperature on Rice Planthopper, Nilaparvata lugens. Huang Jian-li,Hu Chao-Xing,Hou Mao-lin. 2014

[14]Geographic Variation of Rice Yield Response to Past Climate Change in China. Yang Jie,Yang Xiao-guang,Xiong Wei,Cao Yang,Feng Ling-zhi,Xiong Wei,Xiong Wei. 2014

[15]Simulation of future global warming scenarios in rice paddies with an open-field warming facility. Rehmani, Muhammad Ishaq Asif,Zhang, Jingqi,Li, Ganghua,Ata-Ul-Karim, Syed Tahir,Wang, Shaohua,Yan, Chuan,Liu, Zhenghui,Ding, Yanfeng,Rehmani, Muhammad Ishaq Asif,Zhang, Jingqi,Li, Ganghua,Wang, Shaohua,Yan, Chuan,Liu, Zhenghui,Ding, Yanfeng,Kimball, Bruce A.,Yan, Chuan. 2011

[16]Potential impacts of climate change and climate variability on China's rice yield and production. Xiong, Wei,Lin, Erda,Xiong, Wei,Lin, Erda,Conway, Declan,Holman, Ian.

[17]Concurrence of microplastics and heat waves reduces rice yields and disturbs the agroecosystem nitrogen cycle. Shuqing Guo,Li Mu,Shan Sun,Xuan Hou,Mingqi Yao,Xiangang Hu. 2023

[18]Effects of long-term fertilization on the weed growth and community composition in a double-rice ecosystem during the fallow period. Huang, Shan,Pan, Xiaohua,Sun, Yanni,Zhang, Yi,Hang, Xiaoning,Yu, Xichu,Zhang, Weijian. 2013

[19]Aboveground morphological traits do not predict rice variety effects on CH4 emissions. Zhang, Yi,Jiang, Yu,Wang, Xiaofei,Hang, Xiaoning,Zhang, Weijian,Li, Zhijie,Zhu, Xiangchen,Deng, Aixing,Zhang, Jun,Zhang, Weijian,Chen, Jin.

[20]Responses of dissolved organic carbon and dissolved nitrogen in surface water and soil to CO2 enrichment in paddy field. Deng, Aixing,Zhang, Weijian,Guo, Jia,Zhang, Mingqian,Zhang, Li,Bian, Xinmin,Zhang, Weijian,Zhu, Jianguo.