Research Progress on the Application of Inorganic Nanoparticle Enzyme in the Field of Analytical Sensing

doi:10.19894/j.issn.1000-0518.230286

Chinese Journal of Applied Chemistry ›› 2024, Vol. 41 ›› Issue (1): 60-86.DOI: 10.19894/j.issn.1000-0518.230286

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Research Progress on the Application of Inorganic Nanoparticle Enzyme in the Field of Analytical Sensing

Jian-Tian LU, Jin-Hui ZOU, Bo-Lin ZHAO(), Yu-Wei ZHANG()

School of Chemistry and Chemical Engineering，Guangzhou University，Guangzhou 510006，China

Received:2023-09-21 Accepted:2023-12-15 Published:2024-01-01 Online:2024-01-30
Contact: Bo-Lin ZHAO,Yu-Wei ZHANG
About author:zhaobolin@gzhu.edu.cn
ccywzhang@gzhu.edu.cn；
Supported by:
the National Natural Science Foundation of China （No.?22122402） and the Natural Science Foundation of Guangdong Province(2021B1515020048)

Abstract

Abstract:

Nanozymes are suggested to be the substitute of natural enzymes owing to their merits involving low cost， high stability and large specific surface area. Over the past 15 years， a plethora of studies has provided enormous insights into the structure and function of nanoparticle enzyme mimics in the application of sensing and detecting. To date a great number of nanomaterials have been developed as nanozymes including metals， metal oxides and carbon-based materials. Nanozymes have played a more significant role in some areas， especially in sensing （small molecules detection， ion detection， biomacromolecules detection and so on）. Herein， we review the approaches and the applications of nanozyme during the past decades， with a specific focus on the area of sensing. Furthermore， we will propose the opinion about the challenges to utilize nanozyme for sensing applications.

Key words: Nanozymes, Catalytic activity, Nanoparticle, Sensing

CLC Number:

O651

Jian-Tian LU, Jin-Hui ZOU, Bo-Lin ZHAO, Yu-Wei ZHANG. Research Progress on the Application of Inorganic Nanoparticle Enzyme in the Field of Analytical Sensing[J]. Chinese Journal of Applied Chemistry, 2024, 41(1): 60-86.

Figures/Tables 23

图1 Fe-N/C催化剂（a） 2200、（b） 400、（c） 120和（d） 35 nm下的SEM图；（e） Fe-N/C催化剂的尺寸与氧化活性的关系图［17］Fig.?1　SEM images of Fe-N/C catalysts with size of 2200 （a）， 400 （b）， 120 （c） and 35 nm （d）， respectively；（e） The size-dependent oxidase-like activities of Fe-N/C catalysts with different sizes［17］

Fig.2 Facet-selective response of trigger molecule to CeO2 ［110］ is revealed for up-regulating oxidase-like activity of nanoceria［24］

Fig.3 Rational design of high-performance Au@Pt NP bifunctional nanozymes by controlling the Pt amount［27］

Fig.4 Schematic illustration of the preparation of PAH stabilized IrO2/GO nanocomposites and the colorimetric detection of AA based on the peroxidase-like activity of IrO2/GO nanocomposites［30］

Fig.5 （A） A scheme showing F--capped nanoceria with improved oxidase turnovers；（B） DLS size distribution and a TEM image （inset） of nanoceria； UV-Vis spectra of （C） ABTS （0.5 mmol/L） and （D） TMB （1 mmol/L） oxidation by nanoceria［38］

Fig.6 Photographs showing the activity and specificity of （A） Fe3O4 NPs，（B） T-MIPneg and （C） A-MIPpos nanogels for oxidation of TMB and ABTS with or without H2O2；（D） A scheme of imprinting TMB on Fe3O4 NPs［40］

图7 提出的L-半胱氨酸的比色检测机制示意图［47］Fig.?7　Proposed mechanism for the colorimetric detection of L-Cys［47］

Fig.8 Schematic illustration of the cascade cysteine oxidase- and peroxidase-mimicking activities and stimulus-responsive fluorescence of CuBDC［51］

Fig.9 Schematic illustration of V2O5 nanosheet based colorimetric assay for glutathione detection using TMB as the indicator［54］

Fig.10 Schematic illustration of the ratiometric fluorescent sensor for GSH based on MnO2-Cu/Ag NCs-VB1 system［56］

Fig.11 Schematic illustration of （A） the fabrication procedure of MA-Hem/AueAg nanocomposite nanozymes and （B） the catalysis-based colorimetric test for glucose［58］

Fig.12 （a） Enzymatic scheme of GOx and HRP with H2O2-mediated TMB oxidation；（b） Non-enzymatic glucose recognition using a biomimetic nanozyme cascade method of MGCN for glucose oxidation with subsequent in-situ generation of H2O2 and chitin-AcOH for decomposition of H2O2 and TMB oxidation［60］

Fig.13 Scheme depiction of the fluorescence and colorimetric dual-mode assay of alkaline phosphatase activity by using CoOOH nanoflakes and OPD［61］

Fig.14 Illustration of the Pd/g-C3N4 based ratiometric fluorescence strategy for determination of AChE activity［62］

Fig.15 Schematic illustration of the preparation of laccase mimicking CH-Cu nanozymes， which resembles the catalytic center of natural laccase. PDB code of the laccase is 1V10［65］

Fig.16 Schematic represents the steps involved in chlorpyrifos sensing［69］

Fig.17 The sensing principle of AChE activity and pesticides based on degradable MnOOH nanozyme［70］

Fig.18 Schematic illustration of the AuNZ-PAD colorimetric sensing mechanism for Hg2+ ions based on the mercury-promoted nanozyme activity of AuNPs［72］

Fig.19 Illustration of enrichment-detection integration strategy［74］

Fig.20 Representation of the decomposition of H2O2 catalyzed by CuS nanoparticles in the presence of Cr2O72- ions in acidic medium to generate ·OH- radicals and formation of fluorescent active TA-OH complex upon reaction with terephthalic acid［77］

Fig.21 Schematic illustration of detection mechanism of Ag+ ions based on CuO NPs as self-cascade catalytical reaction［81］

Fig.22 Schematic representation of （A） the preparation of CoOxH-GO nanohybrid for the catalysis of H2O2 mediated oxidation of AR to resorufin，（B） glucose oxidase coupled with peroxidase-like CoOxH-GO nanohybrid for the detection of glucose，（C） detection of CN- ions based on the inhibition of the enzymatic activity of CoOxH-GO nanohybrid and （D） the fabrication of CoOxH-GO/N+M for sensing of cyanide ions［87］

Fig.23 Illustration of the colorimetric method of CoOOH nanoflakes as probe for arsenate detection［90］

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Research Progress on the Application of Inorganic Nanoparticle Enzyme in the Field of Analytical Sensing

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