• 综述 •
田浩, 李子木, 汪长征, 许萍, 徐守芳. 分子印迹荧光传感构建及应用[J]. 化学进展, 2022, 34(3): 593-608.
Hao Tian, Zimu Li, Changzheng Wang, Ping Xu, Shoufang Xu. Construction and Application of Molecularly Imprinted Fluorescence Sensor[J]. Progress in Chemistry, 2022, 34(3): 593-608.
构建一个高灵敏、高选择性检测痕量分析物的传感器广受科研工作者关注。分子印迹技术由于具有高选择性识别、高容量吸附、快速结合、热稳定性以及低成本等优点,已广泛应用于传感构建领域。以分子印迹聚合物为识别单元,结合荧光传感技术所构建的分子印迹荧光传感器在环境污染物痕量检测方面成为研究重点。本文主要介绍分子印迹聚合物的制备方法,总结分子印迹荧光传感器的构建机理和分子印迹荧光传感器在金属离子、有机小分子以及生物大分子检测方面的应用。重点探讨分子印迹传感器在不同数量的荧光团下检测一种或多种目标分析物的方法,包括单一荧光团检测单一目标物、比率荧光检测单一目标物以及分子印迹荧光传感的多元检测。基于以上分析和总结,提出分子印迹荧光传感器的当前挑战和发展前景。
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Polymerization mechanism | Polymerization method | Advantage | Disadvantage | ref |
---|---|---|---|---|
Radical Polymerization | Bulk polymerization | Simple operation, high purity of MIPs | MIPS has an irregular shape, and larger sizes require grinding | |
Suspension polymerization | MIPs is spherical and can be made in one step | The effect of MIPs is poor, template is difficult to elute completely | ||
Precipitation polymerization | Simple operation process, easy control of particle size and morphology of polymer | Requires a large amount of solvent and long polymerization time | ||
Emulsion polymerization | Easily form monodisperse polymers | The whole process cycle is relatively long, and the molecular imprinting efficiency is low | ||
Reversible addition- fragmentation chain transfer (RAFT) | Wide range of monomers; no interference from organometallic catalysts; simple operation | Requires chain transfer agent and chain terminator; residual impurities are difficult to remove | ||
Atom transfer radical polymerization (ATRP) | Mild polymerization conditions; simple operation; high controllability | Large amount of catalyst; toxic initiator | ||
Sol-gel polymerization | Sol-gel method | Synthesis at room temperature, environmentally friendly reaction solvent | There are fewer choices of types of functional monomers and crosslinker that can be used | |
Self-polymerization of dopamine | Self-polymerization of dopamine method | With many non-covalent functional groups, easy to be further modified | Poor controllability |
Detection field | Fluorescent material | Sensor type | Target substance | Detection matrix | Linear range | Detection limit | ref |
---|---|---|---|---|---|---|---|
Metal ion | CDs, Au NCs | Double reference type | Pb2+, Ag+ | Real water | 50 ~ 900 nmol/L 0.2 ~ 12.5 nmol/L | 26 nmol/L 86 nmol/L | |
Amino modified CDs, carboxyl modified CDs | Double reference type | Cu2+, Fe3+ | Real water | 0.5 ~ 50 μmol/L 1 ~ 100 μmol/L | 130 nmol/L 340 nmol/L | ||
ZnSe QDs | Microfluidic paper chip | Cd2+, Pb2+ | Real water | 1 ~ 70 μg/L 1 ~ 60 μg/L | 0.245 μg/L 0.335 μg/L | ||
Blue and red CDs | Two-channel detection | Cr3+, Pb2+ | Real water | 0.1 ~ 6.0 μmol/L 0.1 ~ 5.0 μmol/L | 27 nmol/L 34 nmol/L | ||
Blue and red CDs | Two-channel detection | Cr6+, Cr3+ | Real water | 0.01 ~ 10.0 μmol/L 0.1 ~ 15.0 μmol/L | 3.8 nmol/L 46 nmol/L | ||
CdTe QDs | Microfluidic paper chip | Cu2+, Hg2+ | Real water | 0.11 ~ 58.0 μg/L 0.26 ~ 34.0 μg/L | 0.035 μg/L 0.056 μg/L | ||
CQDs | Single emission quenching | Cu2+ | Tap Water | 0.25 ~ 2 mg /L 3 ~ 10 mg /L | 2.86μmol/L | ||
Organic molecules | CQDs, CdTe QDs | Ratiometric type | Dopamine | Human serum | 0.2853~ 5 μmol/L | 0.2853μmol/L | |
3-(anthracen-9- ylmethyl)-1-vinyl-1H- imidazol-3-ium chloride | Single emission quenching | P-nitroaniline | Wastewater | 10-8 ~ 10 mol/L | 9 nmol/L | ||
ZnS QDs | Single emission quenching | Sparfloxacin | Biological serum | 0.05~ 2.0 μg/mL | 0.012 μg/mL | ||
Nitrogen-doped CDs | Single emission quenching | Aspirin | Human urine and saliva | 0.9~ 9.0 mg/L | 0.198 mg/L | ||
CQDs | Single emission quenching | Tetracycline | Real water | 1.0 ~ 60 μmol/L | 0.17 μmol/L | ||
Calcium fluoride CDs | Ratiometric type | 5-Hydroxymethyl- furfural | Honey | 0.1~ 6.0 μg/mL | 0.043 μg/mL | ||
CQDs, CdTe QDs | Ratiometric type | Sulfadiazine | Real water and milk | 0.25~ 20 μmol/L | 0.042 μmol/L | ||
Biomacromolecule | ATTO 647N | Signal amplification | Porcine serum albumin | Porcine serum | 0.25~ 5 nmol/L | 40 pmol/L | |
Cadmium telluride QDs | Single emission quenching | Myoglobin | Human serum | 7.39 ~ 291.3 pg/mL | 3.08 pg/mL | ||
Silanized CDs | Single emission quenching | Bovine hemoglobin | Bovine serum | 0.31~ 1.55μmol/L | 1.55μmol/L | ||
ZnS QDs | Single emission quenching | Lysozyme | Real biologic sample | 0.1 ~ 1μmol/L | 10.2 nmol/L | ||
CdTe QDs | Single emission quenching | Myoglobin | Human serum | 0.304 ~ 571 pg/mL | 0.045 pg/mL | ||
Green and red CdTe QDs | Ratiometric type | Bovine hemoglobin | Bovine urine | 0.050 ~ 3.0μmol/L | 9.6 nmol/L | ||
Tetra(4- carboxyphenyl) porphyrin | Signal amplification | Horseradish peroxidase | Urine | 10-4 ~ 10 mg/L | 0.042 μg/L | ||
Phycocyanin and CdTe QDs | Ratiometric type | Phycocyanin | Seawater | 0 ~ 1.8 μmol/L | 3.2 nmol/L |
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