LICRED: A Versatile Drop-In Vector for Rapid Generation of Redox-Self-Sufficient Cytochrome P450s

Cytochromes P450 (P450s) are a family of haem-containing oxidases with considerable potential as tools for industrial biocatalysis. Organismal genomes are revealing thousands of gene sequences that encode P450s of as yet unknown function, the exploitation of which will require high-throughput tools...

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Published inChembiochem : a European journal of chemical biology Vol. 11; no. 7; pp. 987 - 994
Main Authors Sabbadin, Federico, Hyde, Ralph, Robin, Aelig, Hilgarth, Eva-Maria, Delenne, Marie, Flitsch, Sabine, Turner, Nicholas, Grogan, Gideon, Bruce, Neil C
Format Journal Article
LanguageEnglish
Published Weinheim Wiley-VCH Verlag 03.05.2010
WILEY-VCH Verlag
WILEY‐VCH Verlag
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Abstract Cytochromes P450 (P450s) are a family of haem-containing oxidases with considerable potential as tools for industrial biocatalysis. Organismal genomes are revealing thousands of gene sequences that encode P450s of as yet unknown function, the exploitation of which will require high-throughput tools for their isolation and characterisation. In this report, a ligationindependent cloning vector "LICRED" is described that enables the high-throughput generation of libraries of redox-self-sufficient P450s by fusing a range of P450 haem domains to the reductase of P450RhF (RhF-Red) in a robust and generically applicable way. Cloning and expression of fusions of RhF-Red with the haem domains of P450cam and P450-XplA resulted in soluble, active, redox-self-sufficient, chimeric enzymes. In vitro studies also revealed that electron transfer from NADPH to haem was primarily intramolecular. The general applicability of the LICRED platform was then demonstrated through the creation of a library of RhF-Red fusion constructs by using the diverse complement of P450 haem domains identified in the genome of Nocardia farcinica. The resultant fusion-protein library was then screened against a panel of substrates; this revealed chimeric enzymes competent for the hydroxylation of testosterone and methyltestosterone, and the dealkylation of 7-ethoxycoumarin.
AbstractList Cytochromes P450 (P450s) are a family of haem‐containing oxidases with considerable potential as tools for industrial biocatalysis. Organismal genomes are revealing thousands of gene sequences that encode P450s of as yet unknown function, the exploitation of which will require high‐throughput tools for their isolation and characterisation. In this report, a ligationindependent cloning vector “LICRED” is described that enables the high‐throughput generation of libraries of redox‐self‐sufficient P450s by fusing a range of P450 haem domains to the reductase of P450RhF (RhF‐Red) in a robust and generically applicable way. Cloning and expression of fusions of RhF‐Red with the haem domains of P450cam and P450‐XplA resulted in soluble, active, redox‐self‐sufficient, chimeric enzymes. In vitro studies also revealed that electron transfer from NADPH to haem was primarily intramolecular. The general applicability of the LICRED platform was then demonstrated through the creation of a library of RhF‐Red fusion constructs by using the diverse complement of P450 haem domains identified in the genome of Nocardia farcinica. The resultant fusion‐protein library was then screened against a panel of substrates; this revealed chimeric enzymes competent for the hydroxylation of testosterone and methyltestosterone, and the dealkylation of 7‐ethoxycoumarin. A new platform, LICRED, enables the high‐throughput generation of chimeric cytochromes P450 by fusing a library of haem domains to a generic reductase by ligation‐independent cloning. This strategy can be used to characterise orphan P450s for which the function has not been determined and also to generate libraries of redox‐self‐sufficient biocatalysts.
Cytochromes P450 (P450s) are a family of haem‐containing oxidases with considerable potential as tools for industrial biocatalysis. Organismal genomes are revealing thousands of gene sequences that encode P450s of as yet unknown function, the exploitation of which will require high‐throughput tools for their isolation and characterisation. In this report, a ligationindependent cloning vector “LICRED” is described that enables the high‐throughput generation of libraries of redox‐self‐sufficient P450s by fusing a range of P450 haem domains to the reductase of P450RhF (RhF‐Red) in a robust and generically applicable way. Cloning and expression of fusions of RhF‐Red with the haem domains of P450cam and P450‐XplA resulted in soluble, active, redox‐self‐sufficient, chimeric enzymes. In vitro studies also revealed that electron transfer from NADPH to haem was primarily intramolecular. The general applicability of the LICRED platform was then demonstrated through the creation of a library of RhF‐Red fusion constructs by using the diverse complement of P450 haem domains identified in the genome of Nocardia farcinica . The resultant fusion‐protein library was then screened against a panel of substrates; this revealed chimeric enzymes competent for the hydroxylation of testosterone and methyltestosterone, and the dealkylation of 7‐ethoxycoumarin.
Cytochromes P450 (P450s) are a family of haem-containing oxidases with considerable potential as tools for industrial biocatalysis. Organismal genomes are revealing thousands of gene sequences that encode P450s of as yet unknown function, the exploitation of which will require high-throughput tools for their isolation and characterisation. In this report, a ligationindependent cloning vector "LICRED" is described that enables the high-throughput generation of libraries of redox-self-sufficient P450s by fusing a range of P450 haem domains to the reductase of P450RhF (RhF-Red) in a robust and generically applicable way. Cloning and expression of fusions of RhF-Red with the haem domains of P450cam and P450-XplA resulted in soluble, active, redox-self-sufficient, chimeric enzymes. In vitro studies also revealed that electron transfer from NADPH to haem was primarily intramolecular. The general applicability of the LICRED platform was then demonstrated through the creation of a library of RhF-Red fusion constructs by using the diverse complement of P450 haem domains identified in the genome of Nocardia farcinica. The resultant fusion-protein library was then screened against a panel of substrates; this revealed chimeric enzymes competent for the hydroxylation of testosterone and methyltestosterone, and the dealkylation of 7-ethoxycoumarin.
Author Hilgarth, Eva-Maria
Hyde, Ralph
Delenne, Marie
Flitsch, Sabine
Robin, Aelig
Turner, Nicholas
Sabbadin, Federico
Grogan, Gideon
Bruce, Neil C
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Snippet Cytochromes P450 (P450s) are a family of haem-containing oxidases with considerable potential as tools for industrial biocatalysis. Organismal genomes are...
Cytochromes P450 (P450s) are a family of haem‐containing oxidases with considerable potential as tools for industrial biocatalysis. Organismal genomes are...
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SubjectTerms biocatalysis
Cytochrome P-450 Enzyme System - genetics
Cytochrome P-450 Enzyme System - metabolism
cytochromes
Electron Transport
enzyme catalysis
Enzymes
Genetic Vectors
Heme - chemistry
heme proteins
high throughput
Kinetics
NADP - chemistry
Oxidation-Reduction
Protein Structure, Tertiary
Recombinant Fusion Proteins - genetics
Recombinant Fusion Proteins - metabolism
Title LICRED: A Versatile Drop-In Vector for Rapid Generation of Redox-Self-Sufficient Cytochrome P450s
URI https://api.istex.fr/ark:/67375/WNG-799MHQH6-0/fulltext.pdf
https://onlinelibrary.wiley.com/doi/abs/10.1002%2Fcbic.201000104
https://www.ncbi.nlm.nih.gov/pubmed/20425752
https://search.proquest.com/docview/733937155
Volume 11
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