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化学进展 2020, Vol. 32 Issue (7): 895-905 DOI: 10.7536/PC191226 前一篇   后一篇

• 综述 •

共价有机框架材料在固定化酶及模拟酶领域的应用

侯晨1,**(), 陈文强1, 付琳慧1, 张素风1, 梁辰2   

  1. 1. 陕西科技大学 轻工科学与工程学院 陕西省造纸技术及特种纸品开发重点实验室 中国轻工业纸基功能材料重点实验室 西安 710021
    2. 广西清洁化制浆造纸与污染控制重点实验室 南宁 530004
  • 收稿日期:2019-12-27 出版日期:2020-07-24 发布日期:2020-07-10
  • 通讯作者: 侯晨
  • 基金资助:
    广西清洁化制浆造纸与污染控制重点实验室开放基金项目(KF20171)
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Covalent Organic Frameworks(COFs) Materials in Enzyme Immobilization and Mimic Enzymes

Chen Hou1,**(), Wenqiang Chen1, Linhui Fu1, Sufeng Zhang1, Chen Liang2   

  1. 1. College of Bioresources Chemical and Materials Engineering, Shaanxi Provincial Key Laboratory of Papermaking Technology and Specialty Paper Development, Key Laboratory of Paper Based Functional Materials of China National Light Industry, Shaanxi University of Science and Technology, Xi’an 710021, China
    2. Guangxi Key Laboratory of Clean Pulp & Papermaking and Pollution Control, Nanning 530004, China
  • Received:2019-12-27 Online:2020-07-24 Published:2020-07-10
  • Contact: Chen Hou
  • About author:
    **
  • Supported by:
    Guangxi Key Laboratory of Clean Pulping, Papermaking, and Pollution Control Opening Fund(KF20171)

共价有机框架(Covalent Organic Frameworks, COFs)是一类由轻质元素通过可逆共价键连接而成的晶型多孔有机材料。因具有高比表面积、低密度、规则的孔隙和易于功能化等独特的性能和结构,COFs在气体吸附、化学传感和非均相催化等领域有着广泛的应用前景。近年来,COFs逐渐显现出在固定化酶和模拟酶领域的应用潜力,由于可以轻松定制COF上的官能团以保持COF与酶之间的特定相互作用,因此COF成为有吸引力的酶固定基质。此外,COF的连续且封闭的开放通道为渗透酶提供了良好的微环境。同时,探索了COF模拟酶的特征,通过“从下到上”的方法或后修饰策略设计了COF模拟酶。这不仅扩展了固定化酶载体材料的研究和应用范围,还为模拟酶仿生催化提供了新的研究思路。本文综述了COFs固定化酶和作为纳米材料模拟酶(纳米酶)在生物催化领域的研究进展,详细讨论了COFs载体的合成和功能化策略、固定化酶方式,以及COFs纳米酶的设计理念、催化活性和选择性等内容。最后总结了目前COFs在酶催化领域所面临的挑战和未来发展的机遇。

关键词： 共价有机框架, 复合材料, 固定化酶, 模拟酶, 非均相催化

Covalent organic frameworks(COFs) are a class of crystalline porous organic material, constructed with light elements by reversible covalent bonds. Due to their high surface area, low density, regular channel structure and facile functionalization, COFs have attracted much attention and shown high perspectives in gas adsorption, chemical sensing, heterogeneous catalysis, etc. Recently, COFs have shown potential applications in enzyme immobilization and mimic enzymes. COFs present an attractive category of enzyme immobilization matrix, because the functional groups on COFs can be readily tailored to hold specific interactions between COFs and enzymes. Moreover, the continuous and confined open channels of COFs provide a favorable micro-environment for infiltrating enzymes. Meanwhile, the mimic enzyme features of COFs are explored, COF mimic enzymes are designed either by “from bottom to top” method or post modification strategy. As a result, not only the carrier materials for enzyme immobilization are expanded, but also it provides new ideas for biomimetic catalysis of mimic enzymes. This review focuses on recent advances of COFs immobilized enzyme and COFs mimic enzymes(nanozyme) applied in biocatalysis. Special emphasis is placed on the deliberation of synthetic and functional strategies, immobilization methods of COFs carrier, as well as the design concept, catalytic activity and selectivity of COFs mimic enzymes. Finally, the remaining challenges of COFs in enzyme catalysis and prospects in this field are summarized.

Contents

1 Introduction

2 Application of COFs materials in enzyme catalysis

2.1 COFs as immobilized enzyme carriers

2.2 COFs as mimic enzymes

3 Conclusion and outlook

Key words: covalent organic framework(COFs), composite material, enzyme immobilization, mimic enzyme, heterogeneous catalysis
()
图1 COF-ETTA-EDDA合成示意图[37]
Fig.1 The synthetic procedure for COF-ETTA- EDDA[37]
图2 CON(TpBD)合成示意图[41]
Fig.2 Synthesis of CON(TpBD)[41]
图3 (a)COF 1合成示意图;(b)COF 1共价固定手性生物分子示意图[47]
Fig.3 (a) Synthesis reaction of COF 1;(b) Illustration of the covalent strategy to bond various biomolecules with COFs[47]
图4 (a)SNW-1合成示意图;(b)cellulase@poly(GMA-EDMA-SNW-1)整体柱制备示意图[48]
Fig.4 (a) Preparation of SNW-1;(b) Fabrication of cellulase@poly(GMA-EDMA-SNW-1) capillary monolithic column[48]
表1 各种多孔材料结构参数及脂肪酶负载量[29]
Table 1 Textural parameters of various porous materials before and after loading of lipase PS as well as the corresponding loading capacity[29]
Materials BET(m2·g-1) Loading capacity
(mg·mg-1)
COF-OH 1620 /
lipase@COF-OH 756 0.75
COF-ONa 1492 /
lipase@COF-ONa 854 0.59
POP-OMe 1056 /
lipase@POP-OMe 605 0.58
POP-V 952 /
lipase@POP-V 585 0.50
MCM-41 1008 /
lipase@MCM-41 712 0.35
PCN-128 2680 /
lipase@PCN-128 1295 0.64
图5 ETTA-TPAL合成和GOD和MP-11自组装示意图[49]
Fig.5 Schematic illustration of ETTA-TPAL synthesis and the assembly of both GOD and MP-11 into the pores of COFETTA-TPAL[49]
图6 含铁卟啉的2D COF仿生氧化催化剂[51]
Fig.6 2D COFs containing iron porphyrin used as biomimetic oxidation catalyst[51]
表2 不同催化剂催化效率对比[51]
Table 2 Kinetic parameters for the oxidation of substrates by different catalysts[51]
Substrate Catalyst k cat(min-1) K m(mM) k cat/K m(M-1·min-1) ref
ABTS CHF-1 0.45 0.022 2.06×104 51
FeTPPCL 3.67 0.0055 6.62×105
HRP 887.54 0.15 5.94×106 52
THB
CHF-1 0.33 0.0040 8.26×104
HRP 1965 0.89 2.2×106
hemin-graphene 246 1.22 2.0×105
FeTMPyP-graphene 545 0.96 5.7×105
PCN-222(Fe) 16.1 0.33 4.85×104 53
图7 DCB通过微波增强高温离子热法合成CTF-1[35]
Fig.7 Illustration of the trimerization of DCB to yield CTF-1 by using a microwave-enhanced high-temperature ionothermal method[35]
表3 Fe-COF稳态动力学拟合参数V max和K m的比较[24]
Table 3 Comparison of the steady-state kinetic fitting parameters V max and K m[24]
Catalyst K m(mM) V max(M·s-1) ref
TMB H2O2 TMB H2O2
Fe-COF 0.02 0.143 3.83×10-8 4.74×10-8 24
MIL-53(Fe) 1.08 0.04 8.78×10-8 1.86×10-8 34
HRP 0.434 3.7 1.0×10-7 8.71×10-8 56
Fe3O4@MIL-100(Fe) 0.112 0.077 1.14×10-7 1.8×10-7 57
CuNPs@C 1.65 1.89 1.21×10-7 5.3×10-8 58
图8 Fe-COF比色法检测葡萄糖[24]
Fig.8 Colorimetric sensor for glucose detection using the Fe-COF as the catalyst[24]
图9 PTAZo-Au比色检测Hg2+ [59]
Fig.9 PTAZo-Au for colorimetric detection of H2+ [59]
表4 PTAZo-Au和其他材料检测性能对比[59]
Table 4 Comparison of detection performances of PTAZo-Au and other materials[59]
Material Method Linear range(nM) Detection limit(nM) ref
PTAZo-Au colorimetric 5~300 0.75 59
Rox-DNA functionalized silicon nanodots fluorescence 10~1500 9.2 60
DNA-templated quantum dots phosphorescence 20~800 4.8 61
AuNPs colorimetric 1~600 0.3 62
COF-LZU8 fluorescence 250~1000 125 63
图10 铜修饰的共价三嗪框架合成示意图[64]
Fig.10 Synthesis of the copper-modified covalent triazine framework(CCTF)[64]
表5 Cu2+比色检测效果对比[65]
Table 5 Comparison of several colorimetric methods for Cu2+detection[65]
Catalyst Linear range LOD ref
CTF 1.0~80 μg/L(15.75 nM~1.26 mM) 0.08 μg/L(1.25 nM) 65
Br-PEI-AuNPs 0.1~10 μM 0.03 μM 66
ZnO@ZnS core-shell nanoparticles 15~1500 μM 15 μM 67
Au@Pt nanohybrids 0.02~0.5 μM 4.0 nM 68
MOF(UIO-66) 0.00157~0.15737 μM 7.8 nM 69
TiO2 16.2 nM~0.98 mM 16.2 nM 70
图11 AuNPs@Tp-Bpy合成示意图[72]
Fig.11 Synthesis of AuNPs@Tp-Bpy[72]
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