[1]A limited photosynthetic C-4-microcycle and its physiological function in transgenic rice plant expressing the maize PEPC gene. Ji, BH,Zhu, SQ,Jiao, DM. 2004

[2]CO2 exchange and chlorophyll fluorescence of phosphoenolpyruvate carboxylase transgenic rice pollen lines. Ling, Li-Li,Lin, Hong-Hui,Ji, Ben-Hua,Jiao, De-Mao. 2006

[3]Overexpression of maize phosphoenolpyruvate carboxylase improves drought tolerance in rice by stabilization the function and structure of thylakoid membrane. Shen, W. J.,Chen, G. X.,Xu, J. G.,Jiang, Y.,Liu, L.,Gao, Z. P.,Ma, J.,Lv, C. F.,Chen, X.,Chen, T. H..

[4]Characteristics of CO2 exchange and chlorophyll fluorescence of transgenic rice with C-4 genes. Huang, XQ,Jiao, DM,Chi, W,Ku, MSB. 2002

[5]Photosynthetic characteristics and tolerance to photo-oxidation of transgenic rice expressing C(4) photosynthesis enzymes. Jiao, DM,Huang, XQ,Li, X,Chi, W,Kuang, TY,Zhang, QD,Ku, MSB,Cho, DH. 2002

[6]RNAi-mediated transgenic rice resistance to Rice stripe virus. Wang Biao,Lei Yang,Dai Yu-hua,He Wen,Liang Chun,Wang Xi-feng,Guo Cheng,Liang Chun,Zhou Tong,Liang Chun. 2016

[7]Response of Gas Exchange and Water Use Efficiency to Light Intensity and Temperature in Transgenic Rice Expressing PEPC and PPDK Genes. Jiao De-mao,Zhang Bian-jiang,Chen Quan-zhan,Hua Chun,Zhou Feng,Zhou Quan-chen. 2009

[8]The characteristics of CO2 assimilation of photosynthesis and chlorophyll fluorescence in transgenic PEPC rice. Jiao, DM,Li, X,Huang, XQ,Wei, C,Kuang, TY,Maurice, KSB. 2001

[9]Physiological investigation of C-4-phosphoenolpyruvate-carboxylase-introduced rice line shows that sucrose metabolism is involved in the improved drought tolerance. Zhang, Chen,Li, Xia,He, Yafei,Zhang, Jinfei,Yan, Ting,Liu, Xiaolong,Zhang, Chen,Li, Xia,Yan, Ting.

[10]Physiological, structural, and proteomic analysis of chloroplasts during natural senescence of Ginkgo leaves. Wei, Xiao-Dong,Shi, Da-Wei,Chen, Guo-Xiang,Wei, Xiao-Dong,Shi, Da-Wei.

[11]Molybdenum Affects Photosynthesis and Ionic Homeostasis of Chinese Cabbage under Salinity Stress. Hu, Chengxiao,Sun, Xuecheng,Zhao, Xiaohu,Tan, Qiling,Zhang, Ying,Zhang, Mu,Li, Na.

[12]Selenium uptake, dynamic changes in selenium content and its influence on photosynthesis and chlorophyll fluorescence in rice (Oryza sativa L.). Tang, Shuanhu,Huang, Xu,Zhang, Fabao,Pang, Yuwan,Huang, Qiaoyi,Yi, Qiong,Zhang, Mu,Tang, Shuanhu,Huang, Xu,Zhang, Fabao,Pang, Yuwan,Huang, Qiaoyi,Yi, Qiong,Zhang, Mu,Tang, Shuanhu,Huang, Xu,Zhang, Fabao,Pang, Yuwan,Huang, Qiaoyi,Yi, Qiong.

[13]Photosynthesis performance, antioxidant enzymes, and ultrastructural analyses of rice seedlings under chromium stress. Ma, Jing,Lv, Chunfang,Xu, Minli,Chen, Guoxiang,Gao, Zhiping,Lv, Chuangen.

[14]Differential responses of different phenotypes of Microcystis (Cyanophyceae) to UV-B radiation. Qin, Hongjie,Li, Shuangshuang,Li, Dunhai,Qin, Hongjie,Li, Shuangshuang.

[15]Photosynthetic characterization of three dominant plant species in the saline-alkaline soil of the Yellow River Delta, China. Zhang, L.,Yan, K.,Shao, H.,Zhang, L.,Yan, K.,Shao, H.,Shao, H..

[16]Changes in Photosynthetic Characteristics and Antioxidative Protection in Male and Female Ginkgo during Natural Senescence. Shi, Dawei,Wei, Xiaodong,Chen, Guoxiang,Xu, Yanli,Shi, Dawei,Wei, Xiaodong.

[17]The effects of enhanced UV-B radiation on photosynthetic and biochemical activities in super-high-yield hybrid rice Liangyoupeijiu at the reproductive stage. Yu, G. H.,Li, W.,Yuan, Z. Y.,Cui, H. Y.,Gao, Z. P.,Chen, G. X.,Lv, C. G.,Han, B.,Gong, Y. Z..

[18]Elevated CO2 improves lipid accumulation by increasing carbon metabolism in Chlorella sorokiniana. Sun, Zhilan,Chen, Yi-Feng,Du, Jianchang.

[19]Structural, physiological and biochemical responses of Pyrus calleryana offspring to salt stress. Li, X.,Lin, J.,Chang, Y.,Zhang, Z.,Li, X.,Wang, Z.,Wang, Q.,Chang, Y.,Dong, W..

[20]Over-expression of ApKUP3 enhances potassium nutrition and drought tolerance in transgenic rice. Song, Z. -Z.,Song, Z. -Z.,Yang, S. -Y.,Su, Y. -H.,Yang, S. -Y.,Zuo, J.,Zuo, J..