Acta Agriculturae Zhejiangensis ›› 2021, Vol. 33 ›› Issue (9): 1770-1778.DOI: 10.3969/j.issn.1004-1524.2021.09.21
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Research progress of rapid detection of pesticides and veterinary drugs residues and heavy metal ions based on DNA G-quadruplex
SUN Liping1,2(
), BAI Linlin2,3, GAN Yating1, CHEN Xueyun2,3, WANG Liu2, ZHANG Yiming1,*(), HE Kaiyu2,*(), XU Xiahong2
- 1. College of Agriculture and Food Science, Zhejiang A&F University, Hangzhou 311300, China
2. Institute of Quality Safety and Nutrition of Agri-Products, Zhejiang Academy of Agricultural Sciences, Hangzhou 310021, China
3. College of Biological Science and Engineering, Fuzhou University, Fuzhou 350108, China
-
Received:2020-08-10Online:2021-09-25Published:2021-10-09 -
Contact:ZHANG Yiming,HE Kaiyu
CLC Number:
Cite this article
SUN Liping, BAI Linlin, GAN Yating, CHEN Xueyun, WANG Liu, ZHANG Yiming, HE Kaiyu, XU Xiahong. Research progress of rapid detection of pesticides and veterinary drugs residues and heavy metal ions based on DNA G-quadruplex[J]. Acta Agriculturae Zhejiangensis, 2021, 33(9): 1770-1778.
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Fig.1 G-tetrad and G-quadruplexes A, G-tetrad structure; B, Monomolecular folded G-quadruplex (Antiparallel structure); C, Bimolecular folded G-quadruplex (Antiparallel structure); D, Tetramolecular folded G-quadruplex (Parallel structure).
Fig.1 G-tetrad and G-quadruplexes A, G-tetrad structure; B, Monomolecular folded G-quadruplex (Antiparallel structure); C, Bimolecular folded G-quadruplex (Antiparallel structure); D, Tetramolecular folded G-quadruplex (Parallel structure).
Fig.2 Molecular structural formula of dyes A, Protoporphyrin IX[33]; B, Thioflavin T[34]; C, Thiazole Orange[35]; D, N-methylmorpholine[36].
Fig.2 Molecular structural formula of dyes A, Protoporphyrin IX[33]; B, Thioflavin T[34]; C, Thiazole Orange[35]; D, N-methylmorpholine[36].
Fig.3 Rapid detection of veterinary drug residues in agricultural products based on G-quadruplex sensors A, Scheme of tetracycline rapid detection based on DNA G-quadruplex and triple helix[39]; B, Scheme of G-quadruplex based SERS sensing platform for the rapid detection of malachite green[40].
Fig.3 Rapid detection of veterinary drug residues in agricultural products based on G-quadruplex sensors A, Scheme of tetracycline rapid detection based on DNA G-quadruplex and triple helix[39]; B, Scheme of G-quadruplex based SERS sensing platform for the rapid detection of malachite green[40].
Fig.4 Rapid detection of pesticide residues in agricultural products based on G-quadruplex sensors A, The rapid detection of ethanolamine based on G-quadruplex formed by ethanolamine aptamer[42]; B, The label-free and enzyme-free fluorescent biosensor for the rapid detection of ICP[43]; C, Fluorescence biosensor for the detection of acetamiprid based on DNA triple helix molecular switch and G-quadruplex[44].
Fig.4 Rapid detection of pesticide residues in agricultural products based on G-quadruplex sensors A, The rapid detection of ethanolamine based on G-quadruplex formed by ethanolamine aptamer[42]; B, The label-free and enzyme-free fluorescent biosensor for the rapid detection of ICP[43]; C, Fluorescence biosensor for the detection of acetamiprid based on DNA triple helix molecular switch and G-quadruplex[44].
Fig.5 Rapid detection of heavy metal ions in agricultural products based on G-quadruplex sensors A, Scheme of the label-free Hg2+ sensor based on G-quadruplex[45]; B, DNA G-quadruplex-hemin amplified signal for the sensitive electrochemical detection of Pb2+[46]; C, DNA G-quadruplex based Ag+ biosensor[47].
Fig.5 Rapid detection of heavy metal ions in agricultural products based on G-quadruplex sensors A, Scheme of the label-free Hg2+ sensor based on G-quadruplex[45]; B, DNA G-quadruplex-hemin amplified signal for the sensitive electrochemical detection of Pb2+[46]; C, DNA G-quadruplex based Ag+ biosensor[47].
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