Joseph W. Zimmerman,1,2 Darren M. King,1 Andrew D. Palla,1 Joseph T. Verdeyen,1 David L. Carroll,1 Julia K. Laystrom,1 Gabriel Benavides,1 Brian S. Woodard,2 Wayne C. Solomon,2 W. Terry Rawlins,3 Steve J. Davis,3 Michael C. Heaven4
1CU Aerospace LLC (United States) 2Univ. of Ilinois at Urbana-Champaign (United States) 3Physical Sciences, Inc. (United States) 4Emory Univ. (United States)
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Laser action at 1315 nm on the I(2P1/2) → I(2P3/2) transition of atomic iodine has been obtained by a near resonant energy
transfer from O2(a1Δ) produced using a low-pressure electric discharge. In the electric discharge oxygen-iodine laser
(ElectricOIL) the discharge production of atomic oxygen, ozone, and other excited species adds significantly higher
levels of complexity to the post-discharge kinetics which are not encountered in a classic purely chemical O2 (a1Δ)
generation system. In this paper, the discharge species output for laser operating conditions are discussed. Spatial
measurements of O2(a1Δ) and O2 (b1Σ) are reported, and various methods for the determination of atomic oxygen levels
are discussed and compared. The injection of NOX into the system to benefit O2(a1Δ) production is investigated.
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Joseph W. Zimmerman, Darren M. King, Andrew D. Palla, Joseph T. Verdeyen, David L. Carroll, Julia K. Laystrom, Gabriel Benavides, Brian S. Woodard, Wayne C. Solomon, W. Terry Rawlins, Steve J. Davis, Michael C. Heaven, "Important kinetic effects in the hybrid ElectricOIL system," Proc. SPIE 6261, High-Power Laser Ablation VI, 62611R (9 June 2006); https://doi.org/10.1117/12.670446