Literature summary extracted from
Zehentgruber, D.; Hannemann, F.; Bleif, S.; Bernhardt, R.; Lütz, S.
Towards preparative scale steroid hydroxylation with cytochrome P450 monooxygenase CYP106A2. (2010), Chembiochem, 11, 713-721.
Application
EC Number |
Application |
Comment |
Organism |
---|
1.14.15.8 |
synthesis |
efficient approach towards the preparative scale synthesis of hydroxylated steroid derivatives. Improve CYP106A2-catalyzed steroid hydroxylation towards higher productivity and quantitative product formation. Because substrate transport into the cell limits the whole-cell biotransformation, activity can be increased sixfold by using membrane-free crude cell as biocatalyst |
Priestia megaterium |
Cloned(Commentary)
EC Number |
Cloned (Comment) |
Organism |
---|
1.14.15.8 |
expression of the enzyme together with the electron-transfer partners bovine adrenodoxin and adrenodoxin reductase in Escherichia coli. Additionally an enzyme-coupled cofactor regeneration system was implemented by expressing alcohol dehydrogenase from Lactobacillus brevis. By studying the conversion of progesterone and testosterone, the bottlenecks of these P450-catalyzed hydroxylations are identified. Substrate transport into the cell and substrate solubility turned out to be crucial for the overall performance. Based on these investigations a new concept for CYP106A2-catalyzed steroid hydroxylations is developed by which the productivity of progesterone and testosterone conversion could be increased up to 18fold to yield an absolute productivity up to 5.5 g/L*d |
Priestia megaterium |
Organism
EC Number |
Organism |
UniProt |
Comment |
Textmining |
---|
1.14.15.8 |
Priestia megaterium |
Q06069 |
ATCC 13368 |
- |
Synonyms
EC Number |
Synonyms |
Comment |
Organism |
---|
1.14.15.8 |
15beta-hydroxylase CYP106A2 |
- |
Priestia megaterium |
1.14.15.8 |
CYP106A2 |
- |
Priestia megaterium |