Abstract
A new class of Lewis base stabilized formoxyboranes demonstrates the feasibility of catalytic transfer hydroboration. In the presence of a ruthenium catalyst, they have shown broad applicability for reducing carbonyl compounds. Various borylated alcohols are obtained in high selectivity and yields up to 99 %, tolerating several functional groups. Computational studies enabled to propose a mechanism of this transformation, revealing the role of the ruthenium catalyst and the absence of hydroborane intermediates.
Supplementary materials
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Supporting Information
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Experimental and computational details
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XRD Structures
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cif files for reported structures
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Computed structures
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XYZ Coordinates for all computed structures
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