The highly enantioselective addition of Grignard reagents to acylsilanes is catalyzed by copper diphosphine complexes. This transformation affords -silylated tertiary alcohols in up to 97% yield and 98:2 enantiomeric ratio. The competing Meerwein-Ponndorf-Verley reduction is suppressed by the use of a mixture of Lewis acid additives. The chiral catalyst can be recovered as a copper complex and used repeatedly without any loss of catalytic activity
Carbon-carbon bond formation is the basis for the biogenesis of nature's essential molecules. Conseq...
Carbon-carbon bond formation is the basis for the biogenesis of nature's essential molecules. Conseq...
Carbon-carbon bond formation is the basis for the biogenesis of nature's essential molecules. Conseq...
The highly enantioselective addition of Grignard reagents to acylsilanes is catalyzed by copper diph...
The highly enantioselective addition of Grignard reagents to acylsilanes is catalyzed by copper diph...
The highly enantioselective addition of Grignard reagents to acylsilanes is catalyzed by copper diph...
The highly enantioselective addition of Grignard reagents to acylsilanes is catalyzed by copper diph...
A copper(I) catalyst with a chiral ferrocenyl diphosphine ligand facilitates the additive-free 1,2-a...
Tertiary diarylmethanols are highly bioactive structural motifs. A new strategy to access chiral ter...
Tertiary diarylmethanols are highly bioactive structural motifs. A new strategy to access chiral ter...
Tertiary diarylmethanols are highly bioactive structural motifs. A new strategy to access chiral ter...
Tertiary diarylmethanols are highly bioactive structural motifs. A new strategy to access chiral ter...
The complex derived from Taniaphos ligand 4 and CuBr*Me2S catalyzes the asymmetric addition of Grign...
Tertiary diarylmethanols are highly bioactive structural motifs. A new strategy to access chiral ter...
Carbon-carbon bond formation is the basis for the biogenesis of nature's essential molecules. Conseq...
Carbon-carbon bond formation is the basis for the biogenesis of nature's essential molecules. Conseq...
Carbon-carbon bond formation is the basis for the biogenesis of nature's essential molecules. Conseq...
Carbon-carbon bond formation is the basis for the biogenesis of nature's essential molecules. Conseq...
The highly enantioselective addition of Grignard reagents to acylsilanes is catalyzed by copper diph...
The highly enantioselective addition of Grignard reagents to acylsilanes is catalyzed by copper diph...
The highly enantioselective addition of Grignard reagents to acylsilanes is catalyzed by copper diph...
The highly enantioselective addition of Grignard reagents to acylsilanes is catalyzed by copper diph...
A copper(I) catalyst with a chiral ferrocenyl diphosphine ligand facilitates the additive-free 1,2-a...
Tertiary diarylmethanols are highly bioactive structural motifs. A new strategy to access chiral ter...
Tertiary diarylmethanols are highly bioactive structural motifs. A new strategy to access chiral ter...
Tertiary diarylmethanols are highly bioactive structural motifs. A new strategy to access chiral ter...
Tertiary diarylmethanols are highly bioactive structural motifs. A new strategy to access chiral ter...
The complex derived from Taniaphos ligand 4 and CuBr*Me2S catalyzes the asymmetric addition of Grign...
Tertiary diarylmethanols are highly bioactive structural motifs. A new strategy to access chiral ter...
Carbon-carbon bond formation is the basis for the biogenesis of nature's essential molecules. Conseq...
Carbon-carbon bond formation is the basis for the biogenesis of nature's essential molecules. Conseq...
Carbon-carbon bond formation is the basis for the biogenesis of nature's essential molecules. Conseq...
Carbon-carbon bond formation is the basis for the biogenesis of nature's essential molecules. Conseq...