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Pd-catalyzed anti-Markovnikov selective oxidative amination

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In recent years, the synthesis of amines and other nitrogen-containing motifs has been a major area of research in organic chemistry because they are widely represented in biologically active molecules.… Click to show full abstract

In recent years, the synthesis of amines and other nitrogen-containing motifs has been a major area of research in organic chemistry because they are widely represented in biologically active molecules. Current strategies rely on a multistep approach and require one reactant to be activated prior to the carbon–nitrogen bond formation. This leads to a reaction inefficiency and functional group intolerance. As such, a general approach to the synthesis of nitrogen-containing compounds from readily available and benign starting materials is highly desirable. Here we present a palladium-catalysed oxidative amination reaction in which the addition of the nitrogen occurs at the less-substituted carbon of a double bond, in what is known as anti-Markovnikov selectivity. Alkenes are shown to react with imides in the presence of a palladate catalyst to generate the terminal imide through trans-aminopalladation. Subsequently, olefin isomerization occurs to afford the thermodynamically favoured products. Both the scope of the transformation and mechanistic investigations are reported. Aminopalladation is a key step in a number of carbon–nitrogen bond-forming processes, but carrying out this step with intermolecular anti-Markovnikov selectivity has remained difficult. Such a process has now been developed by using an anionic palladium catalyst to generate terminal carbon–nitrogen bonds from alkenes.

Keywords: nitrogen; carbon; anti markovnikov; oxidative amination; chemistry

Journal Title: Nature chemistry
Year Published: 2018

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