Late-Stage Sequential Functionalization of Arenes and Drug Molecules to Access Biaryls and Azahelicenes

Late-stage functionalization of complex substrates represents an important strategy for creating a diverse molecule library without the need for <i>de novo</i> synthesis. Although conventional cross-couplings have developed as a practical access to many (hetero)biaryls, late-stage directed arylation provides a more appealing and cost-effective platform to make these scaffolds. Given the economic and environmental benefits associated with sequential metal catalysis, the selective construction of polyfunctional (hetero)biaryl analogues by complementary multicatalytic sequential C-H halogenation/arylation/cross-coupling sequences is described, which starts from readily accessible (hetero)arenes and takes advantage of inherently present functional groups to guide the multiple late-stage functionalizations. The approach is compatible with sensitive polar and delicate functionalities to produce a diverse range of products that would be difficult to access by traditional methods. In particular, the application of this method has been demonstrated in the late-stage functionalization of many structurally complex natural products and drug/druglike molecules, including the bioactive compounds vismodegib, PH089, and diazepam, as well as in the streamlined synthesis of challenging azahelicenes.

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Publication Details

Journal
The Journal of Organic Chemistry
Published
2025-09-22
DOI
https://doi.org/10.1021/acs.joc.5c01843
Primary Topic
Catalytic C–H Functionalization Methods
Type
article
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article

Late-Stage Sequential Functionalization of Arenes and Drug Molecules to Access Biaryls and Azahelicenes

Xin Zhou, Deyun Qian, Lun Li, Haitao Zhang
The Journal of Organic Chemistry
Catalytic C–H Functionalization Methods
article

Late-Stage Sequential Functionalization of Arenes and Drug Molecules to Access Biaryls and Azahelicenes

Xin Zhou, Deyun Qian, Lun Li, Haitao Zhang
article en

Abstract

Late-stage functionalization of complex substrates represents an important strategy for creating a diverse molecule library without the need for <i>de novo</i> synthesis. Although conventional cross-couplings have developed as a practical access to many (hetero)biaryls, late-stage directed arylation provides a more appealing and cost-effective platform to make these scaffolds. Given the economic and environmental benefits associated with sequential metal catalysis, the selective construction of polyfunctional (hetero)biaryl analogues by complementary multicatalytic sequential C-H halogenation/arylation/cross-coupling sequences is described, which starts from readily accessible (hetero)arenes and takes advantage of inherently present functional groups to guide the multiple late-stage functionalizations. The approach is compatible with sensitive polar and delicate functionalities to produce a diverse range of products that would be difficult to access by traditional methods. In particular, the application of this method has been demonstrated in the late-stage functionalization of many structurally complex natural products and drug/druglike molecules, including the bioactive compounds vismodegib, PH089, and diazepam, as well as in the streamlined synthesis of challenging azahelicenes.

The Journal of Organic ChemistryVol. 90(39)
Yunnan University (CN), Kementerian Pendidikan Malaysia (MY)
Openalex Percentile: Top 81%
Catalytic C–H Functionalization Methods
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