International audienceThe first use of biologically relevant isoindolinones as weak directing groups in transition metal-catalyzed carbon-carbon bond formation via C-H bond functionalization is presented. Notably, besides the presence of two aromatic C-H sites available for functionalization, selective mono-alkenylation in the ortho-position with respect to the nitrogen atom were achieved with a readily available ruthenium catalyst. The scalability, versatility and high functional group tolerance of the catalysis enabled the late-stage functionalization of biologically relevant indoprofen and further derivatizations. Preliminary mechanistic studies indicate (1) the ease of the C-H bond activation step, (2) the key role of the carbonyl group...
Cationic ruthenium(II) complexes enabled catalytic twofold C–H bond functionalizations with weakly c...
The site-selective functionalization of an indole template offers exciting possibilities for the der...
A weakly coordinating biorelevant intrinsic directing group (DG) assisted site-selective C–H alkenyl...
International audienceThe first use of biologically relevant isoindolinones as weak directing groups...
International audienceSite-and regio-selective aromatic C-H bond benzoxylations were found to take p...
International audienceThis chapter describes the recent achievements since 2011 of ruthenium(II)-cat...
A highly regioselective alkenylation of indole at the C2-position has been achieved using the Ru(II)...
Transition metal-catalyzed selective CH, CC and CN bond activation reactions represent a challenging...
A highly regioselective alkenylation of indole at the C2-position has been achieved using the Ru(II)...
The full control of positional selectivity is of prime importance in C-H activation technology. Chel...
Transition metal-catalyzed C-H bond activation reactions have been shown to be effective methods fo...
International audienceSelective C-H functionalizations aiming at the formation of new C-N bonds is o...
An efficient ruthenium-catalyzed oxidative coupling of indoles and pyrroles with various alkenes at ...
The past decades have witnessed rapid development in organic synthesis via catalysis, particularly t...
Organic syntheses based on the activation of C–H bonds catalysed by transition metals (TM) are of gr...
Cationic ruthenium(II) complexes enabled catalytic twofold C–H bond functionalizations with weakly c...
The site-selective functionalization of an indole template offers exciting possibilities for the der...
A weakly coordinating biorelevant intrinsic directing group (DG) assisted site-selective C–H alkenyl...
International audienceThe first use of biologically relevant isoindolinones as weak directing groups...
International audienceSite-and regio-selective aromatic C-H bond benzoxylations were found to take p...
International audienceThis chapter describes the recent achievements since 2011 of ruthenium(II)-cat...
A highly regioselective alkenylation of indole at the C2-position has been achieved using the Ru(II)...
Transition metal-catalyzed selective CH, CC and CN bond activation reactions represent a challenging...
A highly regioselective alkenylation of indole at the C2-position has been achieved using the Ru(II)...
The full control of positional selectivity is of prime importance in C-H activation technology. Chel...
Transition metal-catalyzed C-H bond activation reactions have been shown to be effective methods fo...
International audienceSelective C-H functionalizations aiming at the formation of new C-N bonds is o...
An efficient ruthenium-catalyzed oxidative coupling of indoles and pyrroles with various alkenes at ...
The past decades have witnessed rapid development in organic synthesis via catalysis, particularly t...
Organic syntheses based on the activation of C–H bonds catalysed by transition metals (TM) are of gr...
Cationic ruthenium(II) complexes enabled catalytic twofold C–H bond functionalizations with weakly c...
The site-selective functionalization of an indole template offers exciting possibilities for the der...
A weakly coordinating biorelevant intrinsic directing group (DG) assisted site-selective C–H alkenyl...