cs1c00014_si_002.cif (1.55 MB)
Download fileUreate Titanium Catalysts for Hydroaminoalkylation: Using Ligand Design to Increase Reactivity and Utility
dataset
posted on 30.03.2021, 15:12 authored by Manfred Manßen, Danfeng Deng, Cameron H. M. Zheng, Rebecca C. DiPucchio, Dafa Chen, Laurel L. SchaferHydroaminoalkylation describes the
atom-economical catalytic synthesis
of amines by forming new Csp3–Csp3 bonds using readily available amine and alkene feedstocks.
Herein, we describe an earth-abundant and cost-efficient titanium
catalyst generated in situ using commercially available
Ti(NMe2)4 and a simple to synthesize urea proligand.
This system demonstrates high TOFs for hydroaminoalkylation with unactivated
substrates and features easy to use commercially available titanium
amido precursors. Additionally, a high catalytic activity, scope of
reactivity, and regioselectivity are all demonstrated in the transformation
of unactivated terminal olefins with various alkyl and aryl secondary
amines. Finally, syntheses of useful amine-containing monomers suitable
for the generation of amine-containing materials, as well as amine-containing
building blocks for medicinal chemistry, are disclosed. These preparative
methods avoid the necessity of glovebox techniques and are modified
to be useful to all synthetic chemists.
History
Usage metrics
Read the peer-reviewed publication
Categories
Keywords
unactivated substratesunactivated terminal olefinsamine-containing building blockstitanium catalystamine-containing materialsTOFurea proligandalkene feedstocksLigand Designglovebox techniquesaminesamine-containing monomersUtility HydroaminoalkylationspUreate Titanium Catalyststitanium amido precursors