CC Hydrolases for Biocatalysis

Although CC bond hydrolases are distributed widely in Nature, they has as yet have received only limited attention in the area of biocatalysis compared to their counterpart the C‐heteroatom hydrolases, such as lipases and proteases. However, the substrate range of CC hydrolases, and their non‐depe...

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Published in:Advanced synthesis & catalysis 2013-06, Vol.355 (9), p.1677-1691
Main Authors: Siirola, Elina, Frank, Annika, Grogan, Gideon, Kroutil, Wolfgang
Format: Article
Language:English
Subjects:
Anabaena
Aspergillus
asymmetric catalysis
biotransformations
Bonding
Carbon-carbon composites
Catalysis
CC hydrolysis
Enzymes
hydrolases
Rhodococcus
Synthesis
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description Although CC bond hydrolases are distributed widely in Nature, they has as yet have received only limited attention in the area of biocatalysis compared to their counterpart the C‐heteroatom hydrolases, such as lipases and proteases. However, the substrate range of CC hydrolases, and their non‐dependence on cofactors, suggest that these enzymes may have considerable potential for applications in synthesis. In addition, hydrolases such as the β‐diketone hydrolase from Rhodococcus (OCH) are known, that catalyse the formation of interesting chiral intermediates. Further enzymes, such as kynureninase and a meta‐cleavage product hydrolase (MhpC), are able to catalyse carbon‐carbon bond formation, suggesting wider applications in biocatalysis than previously envisaged. In this review, the distribution, catalytic characteristics and applications of CC hydrolases are described, with a view to assessing their potentialfor use in biocatalytic processes in the future.
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subjects Anabaena
Aspergillus
asymmetric catalysis
biotransformations
Bonding
Carbon-carbon composites
Catalysis
CC hydrolysis
Enzymes
hydrolases
Rhodococcus
Synthesis
title CC Hydrolases for Biocatalysis
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