Unveiling the Hidden σ‐Dimerization of a Kinetically Protected Olympicenyl Radical
The σ‐dimer of a kinetically protected olympicenyl radical, which evaded the experimental detection, was revealed by conversion into biolympicenylidene with E‐configuration in a regioselective manner. The complicated stereochemistry and energetics of the σ‐dimers derived from C2v symmetry and uneven...
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Published in | Chemistry : a European journal Vol. 27; no. 31; pp. 8203 - 8213 |
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Main Authors | , , , , , , |
Format | Journal Article |
Language | English |
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01.06.2021
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Abstract | The σ‐dimer of a kinetically protected olympicenyl radical, which evaded the experimental detection, was revealed by conversion into biolympicenylidene with E‐configuration in a regioselective manner. The complicated stereochemistry and energetics of the σ‐dimers derived from C2v symmetry and uneven spin distribution of the olympicenyl radical were revealed by the theoretical calculations, and the energetic preference of π‐dimer over σ‐dimer by a minute gap was disclosed. The E‐biolympicenylidene, a polycyclic ene structure previously considered as reactive intermediate in the phenalenyl radical system, exhibited exceptional stability, which allowed for a detailed investigation on its singlet diradical character and physical properties by means of X‐ray crystallography, UV‐vis‐NIR absorption/emission spectroscopy and cyclic voltammetry, and assisted by theoretical calculations. The E‐biolympicenylidene showed high resistance towards both thermal and photochemical ring‐cyclization reactions, which was attributed to high activation energies for the rate‐determining electrocyclization operated on both disrotatory and conrotatory mode, as well as a small spin density at the bonding sites for the radical‐radical coupling process.
The hitherto undetected σ‐dimerization pathway in an olympicenyl system was revealed from both theoretical and experimental perspectives. Theoretical calculations gave clear structural and energetic profiles for the σ‐dimerization, and regioselective oxidation of the olympicenyl radical afforded biolympicenylidene with significant singlet diradical character and high resistance towards both thermal and photochemical ring‐cyclization. |
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AbstractList | The σ‐dimer of a kinetically protected olympicenyl radical, which evaded the experimental detection, was revealed by conversion into biolympicenylidene with E‐configuration in a regioselective manner. The complicated stereochemistry and energetics of the σ‐dimers derived from C2v symmetry and uneven spin distribution of the olympicenyl radical were revealed by the theoretical calculations, and the energetic preference of π‐dimer over σ‐dimer by a minute gap was disclosed. The E‐biolympicenylidene, a polycyclic ene structure previously considered as reactive intermediate in the phenalenyl radical system, exhibited exceptional stability, which allowed for a detailed investigation on its singlet diradical character and physical properties by means of X‐ray crystallography, UV‐vis‐NIR absorption/emission spectroscopy and cyclic voltammetry, and assisted by theoretical calculations. The E‐biolympicenylidene showed high resistance towards both thermal and photochemical ring‐cyclization reactions, which was attributed to high activation energies for the rate‐determining electrocyclization operated on both disrotatory and conrotatory mode, as well as a small spin density at the bonding sites for the radical‐radical coupling process. The σ‐dimer of a kinetically protected olympicenyl radical, which evaded the experimental detection, was revealed by conversion into biolympicenylidene with E‐configuration in a regioselective manner. The complicated stereochemistry and energetics of the σ‐dimers derived from C2v symmetry and uneven spin distribution of the olympicenyl radical were revealed by the theoretical calculations, and the energetic preference of π‐dimer over σ‐dimer by a minute gap was disclosed. The E‐biolympicenylidene, a polycyclic ene structure previously considered as reactive intermediate in the phenalenyl radical system, exhibited exceptional stability, which allowed for a detailed investigation on its singlet diradical character and physical properties by means of X‐ray crystallography, UV‐vis‐NIR absorption/emission spectroscopy and cyclic voltammetry, and assisted by theoretical calculations. The E‐biolympicenylidene showed high resistance towards both thermal and photochemical ring‐cyclization reactions, which was attributed to high activation energies for the rate‐determining electrocyclization operated on both disrotatory and conrotatory mode, as well as a small spin density at the bonding sites for the radical‐radical coupling process. The hitherto undetected σ‐dimerization pathway in an olympicenyl system was revealed from both theoretical and experimental perspectives. Theoretical calculations gave clear structural and energetic profiles for the σ‐dimerization, and regioselective oxidation of the olympicenyl radical afforded biolympicenylidene with significant singlet diradical character and high resistance towards both thermal and photochemical ring‐cyclization. The σ-dimer of a kinetically protected olympicenyl radical, which evaded the experimental detection, was revealed by conversion into biolympicenylidene with E-configuration in a regioselective manner. The complicated stereochemistry and energetics of the σ-dimers derived from C symmetry and uneven spin distribution of the olympicenyl radical were revealed by the theoretical calculations, and the energetic preference of π-dimer over σ-dimer by a minute gap was disclosed. The E-biolympicenylidene, a polycyclic ene structure previously considered as reactive intermediate in the phenalenyl radical system, exhibited exceptional stability, which allowed for a detailed investigation on its singlet diradical character and physical properties by means of X-ray crystallography, UV-vis-NIR absorption/emission spectroscopy and cyclic voltammetry, and assisted by theoretical calculations. The E-biolympicenylidene showed high resistance towards both thermal and photochemical ring-cyclization reactions, which was attributed to high activation energies for the rate-determining electrocyclization operated on both disrotatory and conrotatory mode, as well as a small spin density at the bonding sites for the radical-radical coupling process. Abstract The σ‐dimer of a kinetically protected olympicenyl radical, which evaded the experimental detection, was revealed by conversion into biolympicenylidene with E ‐configuration in a regioselective manner. The complicated stereochemistry and energetics of the σ‐dimers derived from C 2 v symmetry and uneven spin distribution of the olympicenyl radical were revealed by the theoretical calculations, and the energetic preference of π‐dimer over σ‐dimer by a minute gap was disclosed. The E‐ biolympicenylidene, a polycyclic ene structure previously considered as reactive intermediate in the phenalenyl radical system, exhibited exceptional stability, which allowed for a detailed investigation on its singlet diradical character and physical properties by means of X‐ray crystallography, UV‐vis‐NIR absorption/emission spectroscopy and cyclic voltammetry, and assisted by theoretical calculations. The E‐ biolympicenylidene showed high resistance towards both thermal and photochemical ring‐cyclization reactions, which was attributed to high activation energies for the rate‐determining electrocyclization operated on both disrotatory and conrotatory mode, as well as a small spin density at the bonding sites for the radical‐radical coupling process. |
Author | Zeng, Zebing Dang, Yanfeng Xu, Jun Xiang, Qin Xu, Zhanqiang Sun, Zhe Guo, Jing |
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BackLink | https://www.ncbi.nlm.nih.gov/pubmed/33783053$$D View this record in MEDLINE/PubMed |
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Keywords | dimerization singlet diradical olympicenyl dehydrogenation Biolympicenylidene |
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Snippet | The σ‐dimer of a kinetically protected olympicenyl radical, which evaded the experimental detection, was revealed by conversion into biolympicenylidene with... The σ-dimer of a kinetically protected olympicenyl radical, which evaded the experimental detection, was revealed by conversion into biolympicenylidene with... Abstract The σ‐dimer of a kinetically protected olympicenyl radical, which evaded the experimental detection, was revealed by conversion into... |
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SubjectTerms | Biolympicenylidene Chemical reactions Chemistry Crystallography dehydrogenation Dimerization Dimers Emission spectroscopy High resistance Mathematical analysis olympicenyl Photochemical reactions Photochemicals Physical properties singlet diradical Spectroscopy Stereochemistry Thermal resistance |
Title | Unveiling the Hidden σ‐Dimerization of a Kinetically Protected Olympicenyl Radical |
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