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Figure/Table detail
Immobilized Multi-Enzyme Cascade Reactor
Hua Guo, Lei Zhang, Xu Dong, Gangyi Shen, Junfa Yin
Progress in Chemistry
, 2020, 32(
4
): 392-405. DOI:
10.7536/PC190426
Fig. 4
Three-enzyme cascade bioreactor for rapid digestion of genomic DNA into single nucleosides
[
30
]
. Copyright 2018, ACS
Other figure/table from this article
Fig. 1
Schematic illustration of immobilized multi-enzyme cascade reactor
Fig. 2
Schematic illustration of multi-enzyme cascade reaction systems based on the DNA hydrogel
[
24
]
:(A) preparation of the DNA hydrogel by TdT-generated X-shaped polymers(X-DNA-An and X-DNA-Tn),(B) illustration of X-shaped polymers incorporated with DNAzyme sequences forming peroxidase-mimicking DNAzyme hydrogel, the bienzyme cascade, and the trienzyme cascade,(C) activation of the β-gal/GOx/DNAzyme cascade. Copyright 2016, ACS
Fig. 3
Schematic illustration of LbL assembled bioanode in a biofuel cell(A) and activation of the INV-GDH cascade reaction for catalyzing oxidation of sucrose(B)
[
29
]
. Copyright 2016, ECS
Fig. 5
Proposed conversion process of CO
2
to CH
3
OH catalyzed by the GelCSi-based three-enzyme cascade system(A) and preparation of a three-enzyme system based on GelCSi microcapsules(B)
[
35
]
. Copyright 2014, ACS
Fig. 6
Schematic illustration of DNA origami unit(A) and a modular DNA origami-based HRP-GOx bienzyme cascade nanoreactor(B)
[
45
]
. Copyright 2015, RSC
Fig. 7
Schematic illustration of molecule-level enzyme cascade on 2D surface
[
47
]
. Copyright 2017, ACS
Fig. 8
Distance-dependent effect of assembled ZS-XR/G-XDH pairs
[
66
]
.(A) Time-course profiles of the amount of NADH regenerated by G-XDH when the enzymes were coassembled with interenzyme distances of 10, 54, and 98 nm, and for the free diffusion system with that of 298 nm;(B) Plots of the normalized
V
ini
, the normalized amount of regenerated NADH, and the normalized amount of xylulose produced after 16 h against the interenzyme distances. Copyright 2016, ACS
Fig. 9
Biomimetic βGL-GOx-HRP triple enzymes cascade reaction of subcompartments inside aqueous microconfinements(A), and a simplified cell with a cascade reaction between compartmentalized organelles(B)
[
77
]
. Copyright 2018, ACS
Fig. 10
Schematic illustration of an artificial metabolon confined inside PAA nanochannels to mimic the natural enzyme complex systems
[
82
]
:(A) the immobilization of bi-enzymes inside the PAA nanochannels,(B) flow system of the artificial metabolon,(C) the cascade enzymatic reaction cycles catalyzed by G6PD and CYP1A1. Copyright 2017, RSC
Fig. 11
Construction of RGO-enzyme-coated tissue-engineered blood vessels for suppressing platelet aggregation and multi-enzymes cascade reaction
[
83
]
. Copyright 2015, ACS
