Publication | Closed Access
Multienzyme-Catalyzed Processes: Next-Generation Biocatalysis
166
Citations
43
References
2010
Year
EngineeringBioprocess EngineeringEnzyme ImmobilizationNext-generation BiocatalysisEnzymologyBiochemical EngineeringEnzyme ModificationChemical BiotechnologyBiochemistryBiocatalysisMultiple Enzyme MixturesCatalysisBiomolecular EngineeringBiomanufacturingReaction EngineeringNatural SciencesEnzyme CatalysisBiotechnologyImmobilized EnzymeEnzyme Immobilization TechnologyWhole Cell Biocatalysis
Biocatalysis has gained traction, yet most work focuses on single enzymes, while multi‑enzyme mixtures are increasingly attractive for industrial production. This review proposes a classification of multienzyme‑catalyzed processes. The authors describe multienzyme ex‑vivo systems, model in‑pot reactions, and discuss process engineering, enzyme immobilization, and protein engineering to improve compatibility and implementation.
Biocatalysis has been attracting increasing interest in recent years. Nevertheless, most studies concerning biocatalysis have been carried out using single enzymes (soluble or immobilized). Currently, multiple enzyme mixtures are attractive for the production of many compounds at an industrial level. In this review, a classification of multienzyme-catalyzed processes is proposed. Special emphasis is placed on the description of multienzyme ex-vivo systems where several reactions are carried out by a combination of enzymes acting outside the cell. Furthermore, reaction and process considerations for mathematical modeling are discussed for the specific case where the synthetic reactions are carried out in a single reactor, the so-called multienzyme ‘in-pot’ process. In addition, options for multienzyme ‘in-pot’ process improvements via process engineering and enzyme immobilization technology are described. Finally, enzyme modification via protein engineering is also discussed, such that a better compatibility of the enzymes in the reactor is achieved as a means of assisting the implementation of multienzyme ‘in-pot’ processes.
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