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Bonding analysis of the [C(2)O(4)](2+) intermediate formed in the reaction of CO(2)(2+) with neutral CO(2)
Ferran Feixas1, Robert Ponec, Jirí Fiser
1Institute of Process Fundamentals, Academy of Sciences of the Czech Republic, Rozvojova 135, 165 02, Prague 6, Suchdol 2, Czech Republic.
Abstract:
The bonding patterns of the [C(2)O(4)](2+) dication formed upon interaction of CO(2)(2+) with neutral CO(2) are investigated using the analysis of domain-averaged Fermi holes (DAFHs). The DAFH approach provides an explanation for the previously observed "asymmetry" of the energy deposition in the pair of CO(2)(+) monocations formed in the thermal reaction CO(2)(2+) + CO(2) --> [C(2)O(4)](2+) --> 2 CO(2)(+), specifically that the CO(2)(+) monocation formed from the dication dissociates far more readily than the CO(2)(+) monocation formed from the neutral molecule. The bonding pattern is consistent with a description of intermediate [C(2)O(4)](2+) as a complex between the triplet ground state of CO(2)(2+) with the singlet ground state of neutral CO(2), which can, among other pathways, smoothly proceed to a nondegenerate pair of (4)CO(2)(+) + (2)CO(2)(+) where the former stems from the dication and the latter stems from the neutral reactant. Hence the "electronic history" of the components is retained in the [C(2)O(4)](2+) intermediate. In addition, dissociation of (4)CO(2)(+) is discussed based on CCSD and CASSCF calculations. Equilibrium geometries for the ground electronic states of CO(2)(0/+/2+) and some other relevant structures of CO(2)(+) are determined using the MRCI method.
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