Coherent control provides a quantum-interference based method for controlling chemical reactions. This theory, and its applica- tions to a variety of processes, including branching photodissociation reactions (of such systems as IBr, DOH and Na and2) symmetry breaking (in such molecules as H leading to the possibility of asymmetric synthesis of chiral products, are reviewed. 2O) Computations based on the control scenarios amply demonstrate that a wide range of yield control is possible under suitable laboratory conditions and a recent experiment on the control of the Na(3d)/Na(3p) product ratio in the two-photon disso- Na2 ciation reviewed here proves this point. Theoretical suggestions for controlling bimolecular exchange reactions and other col- lisional events, via intervention during the collision event (laser catalysis), or before it (pre-reaction control), are discussed. 1
CITATION STYLE
Kawasaki, M. (1999). Quantum control of chemical reactions by laser light. The Review of Laser Engineering, 27(Supplement), a4–a5. https://doi.org/10.2184/lsj.27.supplement_a4
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