Carbon as a hydrogen bond acceptor: can dicarbon (C2) act in this manner?
DOI: 10.14469/hpc/6554 Metadata
Created: 2019-12-26 18:18
Last modified: 2020-01-01 17:43
License: Creative Commons: Public Domain Dedication 1.0
Funding: (none given)
Description
Gaussian 16 calculations
Member of collection / collaboration
DOI | Description |
---|---|
10.14469/hpc/177 | Computation data for Henry Rzepa's blog |
Members
DOI | Description |
---|---|
10.14469/hpc/6579 | HF only, CCSD(T), G = -100.351481 |
10.14469/hpc/6583 | :C=C: only, CCSD(T), singlet, alter 6 7 G = -75.741364 DG = 36.0 |
10.14469/hpc/6582 | C≡C only, CCSD(T), triplet alter 4 6 G = -75.755723 ΔG = 27.0 relative to singlet. |
10.14469/hpc/6584 | FHC≡C Hydrogen bond CCSD(T)/ Def2-TZVPP, triplet alter 9 11, goometry optimization to dissociation |
10.14469/hpc/6587 | FH...:C=C:...H-F CCSD(T)/Def2-TZVPP bis-carbene,DG = -276.432065 DG = 43.7 |
10.14469/hpc/6588 | FH...:C≡C:...H-F CCSD(T)/Def2-TZVPP triplet alter 14 16 Geometry optimisation to dissociation |
10.14469/hpc/6581 | FH...C⩸C...H-F CCSD(T)/Def2-TZVPP singlet, quadruple. G = -276.501685 ΔG = 0.0, geometry optimization to dissociation |
10.14469/hpc/6580 | C⩸C only, CCSD(T), singlet, G = -75.798723, ΔG = 0.0 |
10.14469/hpc/6552 | FHC⩸C Hydrogen bond CCSD(T)/Def2-TZVPP, E = -176.12908440, ΔE = 0.0 ΔG = 0.0, geometry optimization to dissociation |
10.14469/hpc/6568 | FHC⩸C Hydrogen bond Def2-TZVPP :C=C: state E = CCSD(T,E4T) = (T) |
10.14469/hpc/6556 | FHC⩸C Hydrogen bond CCSD(T)/Def2-TZVPP :C=C: state, ΔG = 39.3 ΔG = +3.3 relative to FH + :C=C: |