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Gregory H Robinson - One of the best experts on this subject based on the ideXlab platform.

  • protonation of carbene stabilized Diphosphorus complexation of hp2
    Chemical Communications, 2016
    Co-Authors: Yuzhong Wang, Henry F Schaefer, Hunter P Hickox, Melody R Walter, Gregory H Robinson
    Abstract:

    Reaction of carbene-stabilized Diphosphorus, L:P–P:L (5) (L: = :C{N(2,6-Pri2C6H3)CH}2) with pyridine hydrochloride yields [L:(H)P–P:L]Cl (6), a salt containing the HP2+ cation—the elusive phosphorus analogue of the well known diazonium cation, HN2+. In addition to reporting the synthesis and structure, the nature of (6) was further probed by DFT computations. Interestingly, carbenes may be employed to deprotonate (6), affording the starting material (5).

  • splitting molecular oxygen en route to a stable molecule containing Diphosphorus tetroxide
    Journal of the American Chemical Society, 2013
    Co-Authors: Yuzhong Wang, Henry F Schaefer, Paul V R Schleyer, Gregory H Robinson
    Abstract:

    In contrast to stable phosphorus oxides such as P4O6 and P4O10 that possess iconic adamantane-like cage structures, highly reactive phosphorus oxides such as PO, PO2, and P2Ox (x = 1–5) only have been studied in the gas phase or by matrix isolation techniques. Elusive Diphosphorus tetroxide, the long sought phosphorus analogue of N2O4, is particularly noteworthy. Computations predict that the oxo-bridged O2POPO form of P2O4 is energetically more favored than the P–P bonded O2P–PO2 isomer. Herein, we report the experimental realization of Diphosphorus tetroxide—in its energetically disfavored O2P–PO2 form—via carbene-stabilization. The synthesis of the title compound involves the splitting of molecular oxygen by carbene-stabilized Diphosphorus.

  • carbene stabilized Diphosphorus bidentate complexation of bh2
    Chemical Communications, 2011
    Co-Authors: Yuzhong Wang, Henry F Schaefer, Mariham Y Abraham, Paul Von Rague Schleyer, Gregory H Robinson
    Abstract:

    Reaction of carbene-stabilized Diphosphorus, L:P–P:L (L: = :C{N(2,6-Pri2C6H3)CH}2, 1), with excess BH3·THF affords the boronium salt [L:P(μ-BH2)P:L]+[B2H7]−, 2, which contains a three-membered P2B ring. When 2 is dissolved in THF, compounds 1 and 2 exist in a dynamic solution equilibrium.

  • Carbene-stabilized Diphosphorus: bidentate complexation of BH2(+).
    Chemical Communications, 2011
    Co-Authors: Yuzhong Wang, Henry F Schaefer, Mariham Y Abraham, Paul Von Rague Schleyer, Gregory H Robinson
    Abstract:

    Reaction of carbene-stabilized Diphosphorus, L:P–P:L (L: = :C{N(2,6-Pri2C6H3)CH}2, 1), with excess BH3·THF affords the boronium salt [L:P(μ-BH2)P:L]+[B2H7]−, 2, which contains a three-membered P2B ring. When 2 is dissolved in THF, compounds 1 and 2 exist in a dynamic solution equilibrium.

  • Carbene-Stabilized Parent Phosphinidene†
    Organometallics, 2010
    Co-Authors: Yuzhong Wang, Henry F Schaefer, Paul V R Schleyer, Mariham Y Abraham, Robert J. Gilliard, Gregory H Robinson
    Abstract:

    The lithiated N-heterocyclic carbene−phosphinidene adduct L′:P−H (3; L′: = :C{[N(2,6-Pri2C6H3)]2CHCLi(THF)3}) unexpectedly resulted from the reaction of lithium metal with the carbene-stabilized Diphosphorus species L:P−P:L (2; L: = :C{N(2,6-Pri2C6H3)CH}2). Compound 2 was previously prepared by the potassium graphite reduction of L:PCl3 (1).

Yuzhong Wang - One of the best experts on this subject based on the ideXlab platform.

  • protonation of carbene stabilized Diphosphorus complexation of hp2
    Chemical Communications, 2016
    Co-Authors: Yuzhong Wang, Henry F Schaefer, Hunter P Hickox, Melody R Walter, Gregory H Robinson
    Abstract:

    Reaction of carbene-stabilized Diphosphorus, L:P–P:L (5) (L: = :C{N(2,6-Pri2C6H3)CH}2) with pyridine hydrochloride yields [L:(H)P–P:L]Cl (6), a salt containing the HP2+ cation—the elusive phosphorus analogue of the well known diazonium cation, HN2+. In addition to reporting the synthesis and structure, the nature of (6) was further probed by DFT computations. Interestingly, carbenes may be employed to deprotonate (6), affording the starting material (5).

  • splitting molecular oxygen en route to a stable molecule containing Diphosphorus tetroxide
    Journal of the American Chemical Society, 2013
    Co-Authors: Yuzhong Wang, Henry F Schaefer, Paul V R Schleyer, Gregory H Robinson
    Abstract:

    In contrast to stable phosphorus oxides such as P4O6 and P4O10 that possess iconic adamantane-like cage structures, highly reactive phosphorus oxides such as PO, PO2, and P2Ox (x = 1–5) only have been studied in the gas phase or by matrix isolation techniques. Elusive Diphosphorus tetroxide, the long sought phosphorus analogue of N2O4, is particularly noteworthy. Computations predict that the oxo-bridged O2POPO form of P2O4 is energetically more favored than the P–P bonded O2P–PO2 isomer. Herein, we report the experimental realization of Diphosphorus tetroxide—in its energetically disfavored O2P–PO2 form—via carbene-stabilization. The synthesis of the title compound involves the splitting of molecular oxygen by carbene-stabilized Diphosphorus.

  • carbene stabilized Diphosphorus bidentate complexation of bh2
    Chemical Communications, 2011
    Co-Authors: Yuzhong Wang, Henry F Schaefer, Mariham Y Abraham, Paul Von Rague Schleyer, Gregory H Robinson
    Abstract:

    Reaction of carbene-stabilized Diphosphorus, L:P–P:L (L: = :C{N(2,6-Pri2C6H3)CH}2, 1), with excess BH3·THF affords the boronium salt [L:P(μ-BH2)P:L]+[B2H7]−, 2, which contains a three-membered P2B ring. When 2 is dissolved in THF, compounds 1 and 2 exist in a dynamic solution equilibrium.

  • Carbene-stabilized Diphosphorus: bidentate complexation of BH2(+).
    Chemical Communications, 2011
    Co-Authors: Yuzhong Wang, Henry F Schaefer, Mariham Y Abraham, Paul Von Rague Schleyer, Gregory H Robinson
    Abstract:

    Reaction of carbene-stabilized Diphosphorus, L:P–P:L (L: = :C{N(2,6-Pri2C6H3)CH}2, 1), with excess BH3·THF affords the boronium salt [L:P(μ-BH2)P:L]+[B2H7]−, 2, which contains a three-membered P2B ring. When 2 is dissolved in THF, compounds 1 and 2 exist in a dynamic solution equilibrium.

  • Carbene-Stabilized Parent Phosphinidene†
    Organometallics, 2010
    Co-Authors: Yuzhong Wang, Henry F Schaefer, Paul V R Schleyer, Mariham Y Abraham, Robert J. Gilliard, Gregory H Robinson
    Abstract:

    The lithiated N-heterocyclic carbene−phosphinidene adduct L′:P−H (3; L′: = :C{[N(2,6-Pri2C6H3)]2CHCLi(THF)3}) unexpectedly resulted from the reaction of lithium metal with the carbene-stabilized Diphosphorus species L:P−P:L (2; L: = :C{N(2,6-Pri2C6H3)CH}2). Compound 2 was previously prepared by the potassium graphite reduction of L:PCl3 (1).

Henry F Schaefer - One of the best experts on this subject based on the ideXlab platform.

  • protonation of carbene stabilized Diphosphorus complexation of hp2
    Chemical Communications, 2016
    Co-Authors: Yuzhong Wang, Henry F Schaefer, Hunter P Hickox, Melody R Walter, Gregory H Robinson
    Abstract:

    Reaction of carbene-stabilized Diphosphorus, L:P–P:L (5) (L: = :C{N(2,6-Pri2C6H3)CH}2) with pyridine hydrochloride yields [L:(H)P–P:L]Cl (6), a salt containing the HP2+ cation—the elusive phosphorus analogue of the well known diazonium cation, HN2+. In addition to reporting the synthesis and structure, the nature of (6) was further probed by DFT computations. Interestingly, carbenes may be employed to deprotonate (6), affording the starting material (5).

  • splitting molecular oxygen en route to a stable molecule containing Diphosphorus tetroxide
    Journal of the American Chemical Society, 2013
    Co-Authors: Yuzhong Wang, Henry F Schaefer, Paul V R Schleyer, Gregory H Robinson
    Abstract:

    In contrast to stable phosphorus oxides such as P4O6 and P4O10 that possess iconic adamantane-like cage structures, highly reactive phosphorus oxides such as PO, PO2, and P2Ox (x = 1–5) only have been studied in the gas phase or by matrix isolation techniques. Elusive Diphosphorus tetroxide, the long sought phosphorus analogue of N2O4, is particularly noteworthy. Computations predict that the oxo-bridged O2POPO form of P2O4 is energetically more favored than the P–P bonded O2P–PO2 isomer. Herein, we report the experimental realization of Diphosphorus tetroxide—in its energetically disfavored O2P–PO2 form—via carbene-stabilization. The synthesis of the title compound involves the splitting of molecular oxygen by carbene-stabilized Diphosphorus.

  • carbene stabilized Diphosphorus bidentate complexation of bh2
    Chemical Communications, 2011
    Co-Authors: Yuzhong Wang, Henry F Schaefer, Mariham Y Abraham, Paul Von Rague Schleyer, Gregory H Robinson
    Abstract:

    Reaction of carbene-stabilized Diphosphorus, L:P–P:L (L: = :C{N(2,6-Pri2C6H3)CH}2, 1), with excess BH3·THF affords the boronium salt [L:P(μ-BH2)P:L]+[B2H7]−, 2, which contains a three-membered P2B ring. When 2 is dissolved in THF, compounds 1 and 2 exist in a dynamic solution equilibrium.

  • Carbene-stabilized Diphosphorus: bidentate complexation of BH2(+).
    Chemical Communications, 2011
    Co-Authors: Yuzhong Wang, Henry F Schaefer, Mariham Y Abraham, Paul Von Rague Schleyer, Gregory H Robinson
    Abstract:

    Reaction of carbene-stabilized Diphosphorus, L:P–P:L (L: = :C{N(2,6-Pri2C6H3)CH}2, 1), with excess BH3·THF affords the boronium salt [L:P(μ-BH2)P:L]+[B2H7]−, 2, which contains a three-membered P2B ring. When 2 is dissolved in THF, compounds 1 and 2 exist in a dynamic solution equilibrium.

  • Carbene-Stabilized Parent Phosphinidene†
    Organometallics, 2010
    Co-Authors: Yuzhong Wang, Henry F Schaefer, Paul V R Schleyer, Mariham Y Abraham, Robert J. Gilliard, Gregory H Robinson
    Abstract:

    The lithiated N-heterocyclic carbene−phosphinidene adduct L′:P−H (3; L′: = :C{[N(2,6-Pri2C6H3)]2CHCLi(THF)3}) unexpectedly resulted from the reaction of lithium metal with the carbene-stabilized Diphosphorus species L:P−P:L (2; L: = :C{N(2,6-Pri2C6H3)CH}2). Compound 2 was previously prepared by the potassium graphite reduction of L:PCl3 (1).

Jan J Weigand - One of the best experts on this subject based on the ideXlab platform.

Manfred Scheer - One of the best experts on this subject based on the ideXlab platform.