Publication | Closed Access
Experimental and Theoretical Differential Cross Sections for a Four-Atom Reaction: HD + OH → H <sub>2</sub> O + D
163
Citations
36
References
2011
Year
Quantum DynamicEngineeringProton-coupled Electron TransferComputational ChemistryChemistryDifferential Cross SectionsReaction IntermediateQuantum ScienceHigh-energy Nuclear ReactionPhysicsAtomic PhysicsPhysical ChemistryQuantum ChemistryHigh AccuracyQuantum Dynamical TheoriesNatural SciencesProton TransferApplied PhysicsQuantum BiologyReaction ProcessChemical KineticsFour-atom Reaction
Quantum dynamical theories have progressed to the stage in which state-to-state differential cross sections can now be routinely computed with high accuracy for three-atom systems since the first such calculation was carried out more than 30 years ago for the H + H(2) system. For reactions beyond three atoms, however, highly accurate quantum dynamical calculations of differential cross sections have not been feasible. We have recently developed a quantum wave packet method to compute full-dimensional differential cross sections for four-atom reactions. Here, we report benchmark calculations carried out for the prototypical HD + OH → H(2)O + D reaction on an accurate potential energy surface that yield differential cross sections in excellent agreement with those from a high-resolution, crossed-molecular beam experiment.
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