In this report, the streptavidin-biotin technology was applied to enable organocatalytic aldol addition. By attaching pyrrolidine to the valeric motif of biotin and introducing it to streptavidin (Sav), a protein-based organocatalytic system was created, and the aldol addition of acetone with p-nitrobenzaldehyde was tested. The conversion of substrate to product can be as high as 93%. Although the observed enantioselectivity was only moderate (33:67 er), further protein engineering efforts can be included to improve the selectivity. These results have proven the concept that Sav can be used to host stereoselective aldol addition
Artificial metalloenzymes (ArMs) result from anchoring a metal-containing moiety within a macro mole...
Here, the streptavidin–biotin technology was applied to enable organocatalytic transfer hydrogenati...
The chemical modification of proteins to produce protein bioconjugates has revolutionised the field ...
In this report, the streptavidin-biotin technology was applied to enable organocatalytic aldol addit...
There has been growing interest in performing organocatalysis within a supramolecular system as a me...
There has been growing interest in operating organocatalysis within a supramolecular system as means...
The biotin–streptavidin technology offers an attractive means to engineer artificial metalloenzymes ...
The creation of organocatalysts which function efficiently in aqueous or biocompatible environments ...
Here, we combine the use of host screening, protein crystallography and QM/MM molecular dynamics sim...
The biotin-streptavidin technology has been extensively exploited to engineer artificial metalloenzy...
Introduction of a biotinylated monophosphine palladium complex within streptavidin affords an enanti...
Here, the streptavidin-biotin technology was applied to enable organocatalytic transfer hydrogenatio...
Although the idea of using substoichiometric amounts of organic molecules to promote chemical transf...
Here, we combine the use of host screening, protein crystallography and QM/MM molecular dynamics sim...
Incorporation of biotinylated racemic three-legged d6-piano stool complexes in streptavidin yields e...
Artificial metalloenzymes (ArMs) result from anchoring a metal-containing moiety within a macro mole...
Here, the streptavidin–biotin technology was applied to enable organocatalytic transfer hydrogenati...
The chemical modification of proteins to produce protein bioconjugates has revolutionised the field ...
In this report, the streptavidin-biotin technology was applied to enable organocatalytic aldol addit...
There has been growing interest in performing organocatalysis within a supramolecular system as a me...
There has been growing interest in operating organocatalysis within a supramolecular system as means...
The biotin–streptavidin technology offers an attractive means to engineer artificial metalloenzymes ...
The creation of organocatalysts which function efficiently in aqueous or biocompatible environments ...
Here, we combine the use of host screening, protein crystallography and QM/MM molecular dynamics sim...
The biotin-streptavidin technology has been extensively exploited to engineer artificial metalloenzy...
Introduction of a biotinylated monophosphine palladium complex within streptavidin affords an enanti...
Here, the streptavidin-biotin technology was applied to enable organocatalytic transfer hydrogenatio...
Although the idea of using substoichiometric amounts of organic molecules to promote chemical transf...
Here, we combine the use of host screening, protein crystallography and QM/MM molecular dynamics sim...
Incorporation of biotinylated racemic three-legged d6-piano stool complexes in streptavidin yields e...
Artificial metalloenzymes (ArMs) result from anchoring a metal-containing moiety within a macro mole...
Here, the streptavidin–biotin technology was applied to enable organocatalytic transfer hydrogenati...
The chemical modification of proteins to produce protein bioconjugates has revolutionised the field ...