[1]Sensitive immunoassay for the beta-agonist ractopamine based on glassy carbon electrode modified with gold nanoparticles and multi-walled carbon nanotubes in a film of poly-arginine. Wang, Peilong,Su, Xiaoou,Zhou, Ying,Zhao, Hong,He, Yujian,He, Yujian. 2014

[2]An ultrasensitive amperometric immunosensor for zearalenones based on oriented antibody immobilization on a glassy carbon electrode modified with MWCNTs and AuPt nanoparticles. Liu, Na,Tan, Yanglan,Wang, Hui,Wu, Aibo,Nie, Dongxia,Zhao, Zhiyong,Liao, Yucai,Sun, Changpo.

[3]Colorimetric detection of ractopamine and salbutamol using gold nanoparticles functionalized with melamine as a probe. Wang, Peilong,Su, Xiaoou,Zhou, Ying,Zhao, Hong,He, Yujian,He, Yujian.

[4]Aptamer based ultrasensitive determination of the beta-adrenergic agonist ractopamine using PicoGreen as a fluorescent DNA probe. Zhu, Chao,Zhang, Guilan,Huang, Yafei,Yan, Jiao,Chen, Ailiang,Zhu, Chao,Zhang, Guilan,Huang, Yafei,Yan, Jiao,Chen, Ailiang,Huang, Yafei,Yan, Jiao.

[5]Highly Sensitive Colorimetric Detection of Ochratoxin A by a Label-Free Aptamer and Gold Nanoparticles. Luan, Yunxia,Chen, Jiayi,Li, Cheng,Fu, Hailong,Ma, Zhihong,Lu, Anxiang,Luan, Yunxia,Chen, Jiayi,Li, Cheng,Fu, Hailong,Ma, Zhihong,Lu, Anxiang,Xie, Gang. 2015

[6]Visual and microplate detection of aflatoxin B2 based on NaCl-induced aggregation of aptamer-modified gold nanoparticles. Luan, Yunxia,Chen, Jiayi,Li, Cheng,Ping, Hua,Ma, Zhihong,Lu, Anxiang,Xie, Gang.

[7]High sensitive rapid visual detection of sulfadimethoxine by label-free aptasensor. Chen, Ailiang,Jiang, Xiaoling,Zhang, Weiwei,Chen, Gang,Zhao, Yan,Tunio, Tarique Muhammad,Liu, Jinchuan,Lv, Zhenzhen,Yang, Shuming,Chen, Ailiang,Jiang, Xiaoling,Zhang, Weiwei,Chen, Gang,Zhao, Yan,Tunio, Tarique Muhammad,Liu, Jinchuan,Yang, Shuming,Lv, Zhenzhen,Li, Cheng.

[8]Gold Nanoparticle-Aptamer Based Colorimetric Biosensing Assays. Liu Jin-chuan,Lu Zhen-zhen,Chen Ai-liang. 2014

[9]Rapid Visual Detection of Aflatoxin B1 by Label-Free Aptasensor Using Unmodified Gold Nanoparticles. Luan, Yunxia,Chen, Jiayi,Lu, Anxiang,Li, Cheng,Fu, Hailong,Ma, Zhihong,Wang, Jihua,Chen, Zhengbo,Xie, Gang.

[10]An aptamer-based signal-on bio-assay for sensitive and selective detection of Kanamycin A by using gold nanoparticles. Chen, Jing,Li, Zhaohui,Ge, Jia,Yang, Ran,Zhang, Lin,Qu, Ling-bo,Qu, Ling-bo,Wang, Hong-qi,Zhang, Ling.

[11]Enhancement of surface plasmon resonance signals using a MIP/GNPs/rGO nano-hybrid film for the rapid detection of ractopamine. Yao, Ting,Gu, Xu,Li, Junguo,Li, Jun,Zhao, Zhen,Yao, Ting,Li, Tengfei,Wang, Jing,She, Yongxin,Yao, Ting,Qin, Yuchang.

[12]Determination of ractopamine in animal hair: Application to residue depletion in sheep and residue monitoring. Suo Decheng,Zhao Genlong,Wang Ruiguo,Su Xiaoou.

[13]Synthesis of ractopamine molecularly imprinted membrane and its application in the rapid determination of three beta-agonists in porcine urine samples. Wang, Peilong,Zhang, Wei,Ye, Zhihua,Su, Xiaoou,Zhu, Hongxia,Zhu, Ruohua,Wang, Peilong,Zhang, Wei,Ye, Zhihua,Su, Xiaoou. 2013

[14]Mesopores Cellular Foam-Based Electrochemical Sensor for Sensitive Determination of Ractopamine. Ya, Yu,Wei, Liang. 2017

[15]Detection of ractopamine residues in pork by surface plasmon resonance-based biosensor inhibition immunoassay. Zheng, Hong,Yang, Guo-Sheng,Lu, Xiao,Li, Xiu-Qing,Yuan, Xue-Xia,Deng, Li-Gang,Zhang, Hong,Wang, Wen-Zheng,Lu, Xiao,Li, Xiu-Qing,Yuan, Xue-Xia,Deng, Li-Gang,Zhang, Hong,Wang, Wen-Zheng,Yang, Guo-Sheng,Li, Hui,Meng, Meng,Xi, Ri-Mo,Aboul-Enein, Hassan Y..

[16]Development of indirect competitive immunoassay for highly sensitive determination of ractopamine in pork liver samples based on surface plasmon resonance sensor. Liu, Ming,Ning, Baoan,Peng, Yuan,Gao, Zhixian,Qu, Lijie,Dong, Jianwei,Gao, Na,Gao, Zhixian,Liu, Lei.

[17]An electrochemiluminescence aptasensor switch for aldicarb recognition via ruthenium complex-modified dendrimers on multiwalled carbon nanotubes. Li, Shuhuai,Liu, Chunhua,Han, Bingjun,Luo, Jinhui,Yin, Guihao,Li, Shuhuai,Liu, Chunhua,Han, Bingjun,Luo, Jinhui,Yin, Guihao. 2017

[18]Effects of the Fe-II/Cu-II Interaction on Copper Aging Enhancement and Pentachlorophenol Reductive Transformation in Paddy Soil. Wang, Yong-kui,Tao, Liang,Chen, Man-jia,Li, Fang-bai,Wang, Yong-kui,Chen, Man-jia,Wang, Yong-kui,Chen, Man-jia. 2012

[19]Reductive transformation of 2-nitrophenol by Fe(II) species in gamma-aluminum oxide suspension. Tao, Liang,Li, Fangbai,Sun, Kewen,Tao, Liang,Sun, Kewen,Feng, Chunhua,Tao, Liang,Sun, Kewen. 2009

[20]Electrochemical evidence of Fe(II)/Cu(II) interaction on titanium oxide for 2-nitrophenol reductive transformation. Tao, Liang,Li, Fangbai. 2012