C–C bond activation enabled by dyotropic rearrangement of Pd(iv) species
The weak carbon–metal bond combined with the kinetic inertness of the carbon–carbon bond renders metal-catalysed C–C bond activation to be highly challenging. Most of the reported C–C bond activation methodologies involve strain-releasing cleavage of small rings to compensate for unfavourable kineti...
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Published in | Nature chemistry Vol. 13; no. 7; pp. 671 - 676 |
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Main Authors | , , , |
Format | Journal Article |
Language | English |
Published |
London
Nature Publishing Group UK
01.07.2021
NATURE PORTFOLIO Nature Publishing Group |
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Online Access | Get full text |
ISSN | 1755-4330 1755-4349 1755-4349 |
DOI | 10.1038/s41557-021-00698-y |
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Abstract | The weak carbon–metal bond combined with the kinetic inertness of the carbon–carbon bond renders metal-catalysed C–C bond activation to be highly challenging. Most of the reported C–C bond activation methodologies involve strain-releasing cleavage of small rings to compensate for unfavourable kinetic and thermodynamic penalties associated with C–C bond cleavage. Here we report that the 1,2-positional interchange of vicinal C–C and C–Pd(
iv
) bonds (dyotropic rearrangement) can be realized in a stereospecific manner under mild conditions, giving access to quaternary carbon–palladium bonds. An enantioselective synthesis of medicinally relevant fluorinated cyclopentanes, featuring this rearrangement as a key step, has been developed. We anticipate that implementing a Pd-based dyotropic rearrangement in reaction design could provide a new tool in the development of Pd-catalysed transformations.
Many C–C bond activation methods involve strain-releasing cleavage of small rings to compensate for unfavourable kinetics and thermodynamics. Now, the 1,2-positional interchange of vicinal C–C and C–Pd bonds has been reported, giving access to quaternary carbon–palladium bonds. This dyotropic rearrangement has been used for the enantioselective synthesis of functionalized fluorinated cyclopentanes. |
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AbstractList | The weak carbon-metal bond combined with the kinetic inertness of the carbon-carbon bond renders metal-catalysed C-C bond activation to be highly challenging. Most of the reported C-C bond activation methodologies involve strain-releasing cleavage of small rings to compensate for unfavourable kinetic and thermodynamic penalties associated with C-C bond cleavage. Here we report that the 1,2-positional interchange of vicinal C-C and C-Pd(IV) bonds (dyotropic rearrangement) can be realized in a stereospecific manner under mild conditions, giving access to quaternary carbon-palladium bonds. An enantioselective synthesis of medicinally relevant fluorinated cyclopentanes, featuring this rearrangement as a key step, has been developed. We anticipate that implementing a Pd-based dyotropic rearrangement in reaction design could provide a new tool in the development of Pd-catalysed transformations.The weak carbon-metal bond combined with the kinetic inertness of the carbon-carbon bond renders metal-catalysed C-C bond activation to be highly challenging. Most of the reported C-C bond activation methodologies involve strain-releasing cleavage of small rings to compensate for unfavourable kinetic and thermodynamic penalties associated with C-C bond cleavage. Here we report that the 1,2-positional interchange of vicinal C-C and C-Pd(IV) bonds (dyotropic rearrangement) can be realized in a stereospecific manner under mild conditions, giving access to quaternary carbon-palladium bonds. An enantioselective synthesis of medicinally relevant fluorinated cyclopentanes, featuring this rearrangement as a key step, has been developed. We anticipate that implementing a Pd-based dyotropic rearrangement in reaction design could provide a new tool in the development of Pd-catalysed transformations. The weak carbon-metal bond combined with the kinetic inertness of the carbon-carbon bond renders metal-catalysed C-C bond activation to be highly challenging. Most of the reported C-C bond activation methodologies involve strain-releasing cleavage of small rings to compensate for unfavourable kinetic and thermodynamic penalties associated with C-C bond cleavage. Here we report that the 1,2-positional interchange of vicinal C-C and C-Pd(IV) bonds (dyotropic rearrangement) can be realized in a stereospecific manner under mild conditions, giving access to quaternary carbon-palladium bonds. An enantioselective synthesis of medicinally relevant fluorinated cyclopentanes, featuring this rearrangement as a key step, has been developed. We anticipate that implementing a Pd-based dyotropic rearrangement in reaction design could provide a new tool in the development of Pd-catalysed transformations. The weak carbon–metal bond combined with the kinetic inertness of the carbon–carbon bond renders metal-catalysed C–C bond activation to be highly challenging. Most of the reported C–C bond activation methodologies involve strain-releasing cleavage of small rings to compensate for unfavourable kinetic and thermodynamic penalties associated with C–C bond cleavage. Here we report that the 1,2-positional interchange of vicinal C–C and C–Pd(iv) bonds (dyotropic rearrangement) can be realized in a stereospecific manner under mild conditions, giving access to quaternary carbon–palladium bonds. An enantioselective synthesis of medicinally relevant fluorinated cyclopentanes, featuring this rearrangement as a key step, has been developed. We anticipate that implementing a Pd-based dyotropic rearrangement in reaction design could provide a new tool in the development of Pd-catalysed transformations.Many C–C bond activation methods involve strain-releasing cleavage of small rings to compensate for unfavourable kinetics and thermodynamics. Now, the 1,2-positional interchange of vicinal C–C and C–Pd bonds has been reported, giving access to quaternary carbon–palladium bonds. This dyotropic rearrangement has been used for the enantioselective synthesis of functionalized fluorinated cyclopentanes. The weak carbon–metal bond combined with the kinetic inertness of carbon–carbon bond renders the metal catalyzed C–C bond activation to be highly challenging. Most of the reported C–C bond activation methodologies involve the strain-releasing cleavage of small rings to compensate the unfavorable kinetic and thermodynamic penalties associated with the C–C bond cleavage. Here we report that the 1,2-positional interchange of vicinal C–C and C–Pd(IV) bonds (dyotropic rearrangement) can be realized in a stereospecific manner under mild conditions, giving access to quaternary carbon-palladium bonds. An enantioselective synthesis of medicinally relevant fluorinated cyclopentanes, featuring this rearrangement as a key step, has been developed. We anticipate that implementing a Pd-based dyotropic rearrangement in reaction design could provide a new dimension in the development of Pd-catalyzed transformations. The weak carbon–metal bond combined with the kinetic inertness of the carbon–carbon bond renders metal-catalysed C–C bond activation to be highly challenging. Most of the reported C–C bond activation methodologies involve strain-releasing cleavage of small rings to compensate for unfavourable kinetic and thermodynamic penalties associated with C–C bond cleavage. Here we report that the 1,2-positional interchange of vicinal C–C and C–Pd( iv ) bonds (dyotropic rearrangement) can be realized in a stereospecific manner under mild conditions, giving access to quaternary carbon–palladium bonds. An enantioselective synthesis of medicinally relevant fluorinated cyclopentanes, featuring this rearrangement as a key step, has been developed. We anticipate that implementing a Pd-based dyotropic rearrangement in reaction design could provide a new tool in the development of Pd-catalysed transformations. Many C–C bond activation methods involve strain-releasing cleavage of small rings to compensate for unfavourable kinetics and thermodynamics. Now, the 1,2-positional interchange of vicinal C–C and C–Pd bonds has been reported, giving access to quaternary carbon–palladium bonds. This dyotropic rearrangement has been used for the enantioselective synthesis of functionalized fluorinated cyclopentanes. |
Author | Wang, Qian Wu, Hua Cao, Jian Zhu, Jieping |
AuthorAffiliation | 2 Key Laboratory of Organosilicon Chemistry and Material Technology of Ministry of Education, Hangzhou Normal University, Hangzhou 311121, P. R. China 1 Laboratory of Synthesis and Natural Products, Institute of Chemical Sciences and Engineering, Ecole Polytechnique Fédérale de Lausanne, EPFL-SB-ISIC-LSPN, BCH5304, CH-1015 Lausanne, Switzerland |
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Author_xml | – sequence: 1 givenname: Jian orcidid: 0000-0002-7782-0299 surname: Cao fullname: Cao, Jian organization: Laboratory of Synthesis and Natural Products, Institute of Chemical Sciences and Engineering, Ecole Polytechnique Fédérale de Lausanne, Key Laboratory of Organosilicon Chemistry and Material Technology of Ministry of Education, Hangzhou Normal University – sequence: 2 givenname: Hua surname: Wu fullname: Wu, Hua organization: Laboratory of Synthesis and Natural Products, Institute of Chemical Sciences and Engineering, Ecole Polytechnique Fédérale de Lausanne – sequence: 3 givenname: Qian surname: Wang fullname: Wang, Qian organization: Laboratory of Synthesis and Natural Products, Institute of Chemical Sciences and Engineering, Ecole Polytechnique Fédérale de Lausanne – sequence: 4 givenname: Jieping orcidid: 0000-0002-8390-6689 surname: Zhu fullname: Zhu, Jieping email: jieping.zhu@epfl.ch organization: Laboratory of Synthesis and Natural Products, Institute of Chemical Sciences and Engineering, Ecole Polytechnique Fédérale de Lausanne |
BackLink | https://www.ncbi.nlm.nih.gov/pubmed/34031566$$D View this record in MEDLINE/PubMed |
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Snippet | The weak carbon–metal bond combined with the kinetic inertness of the carbon–carbon bond renders metal-catalysed C–C bond activation to be highly challenging.... The weak carbon-metal bond combined with the kinetic inertness of the carbon-carbon bond renders metal-catalysed C-C bond activation to be highly challenging.... The weak carbon–metal bond combined with the kinetic inertness of carbon–carbon bond renders the metal catalyzed C–C bond activation to be highly challenging.... |
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SubjectTerms | 639/638/403/933 639/638/549/933 639/638/77/883 639/638/77/888 Analytical Chemistry Biochemistry Bonding Carbon Chemistry Chemistry and Materials Science Chemistry, Multidisciplinary Chemistry/Food Science Cleavage Covalent bonds Enantiomers Fluorination Inorganic Chemistry Organic Chemistry Palladium Physical Chemistry Physical Sciences Science & Technology Synthesis |
Title | C–C bond activation enabled by dyotropic rearrangement of Pd(iv) species |
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