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Nickel-catalyzed trifluoromethylthiolation of Csp2-O bonds.


ABSTRACT: While nickel catalysts have previously been shown to activate even the least reactive Csp2-O bonds, i.e. aryl ethers, in the context of C-C bond formation, little is known about the reactivity limits and molecular requirements for the introduction of valuable functional groups under homogeneous nickel catalysis. We identified that due to the high reactivity of Ni-catalysts, they are also prone to react with existing or installed functional groups, which ultimately causes catalyst deactivation. The scope of the Ni-catalyzed coupling protocol will therefore be dictated by the reactivity of the functional groups towards the catalyst. Herein, we showed that the application of computational tools allowed the identification of matching functional groups in terms of suitable leaving groups and tolerated functional groups. This allowed for the development of the first efficient protocol to trifluoromethylthiolate Csp2-O bonds, giving the mild and operationally simple C-SCF3 coupling of a range of aryl, vinyl triflates and nonaflates. The novel methodology was also applied to biologically active and pharmaceutical relevant targets, showcasing its robustness and wide applicability.

SUBMITTER: Durr AB 

PROVIDER: S-EPMC5635847 | biostudies-other | 2016 Feb

REPOSITORIES: biostudies-other

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Nickel-catalyzed trifluoromethylthiolation of Csp<sup>2</sup>-O bonds.

Dürr Alexander B AB   Yin Guoyin G   Kalvet Indrek I   Napoly François F   Schoenebeck Franziska F  

Chemical science 20151030 2


While nickel catalysts have previously been shown to activate even the least reactive Csp<sup>2</sup>-O bonds, <i>i.e.</i> aryl ethers, in the context of C-C bond formation, little is known about the reactivity limits and molecular requirements for the introduction of valuable functional groups under homogeneous nickel catalysis. We identified that due to the high reactivity of Ni-catalysts, they are also prone to react with existing or installed functional groups, which ultimately causes cataly  ...[more]

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