Optically based diagnostics for gas-phase laser development
暂无分享,去创建一个
Wilson T. Rawlins | Seonkyung Lee | Kristin L. Galbally-Kinney | William J. Kessler | Adam J. Hicks | Ian M. Konen | Emily P. Plumb | Steven J. Davis | W. Kessler | S. Davis | W. Rawlins | Seonkyung Lee | K. Galbally-Kinney | A. Hicks | E. Plumb
[1] Wilson T. Rawlins,et al. Kinetics and scaling of gain and lasing in a 1-5 kW microwave discharge oxygen iodine laser , 2010, LASE.
[2] W. Rawlins,et al. Dynamics of vibrationally excited ozone formed by three‐body recombination. I. Spectroscopy , 1987 .
[3] David L. Carroll,et al. Demonstration of an iodine laser pumped by an air–helium electric discharge , 2009, LASE.
[4] Seonkyung Lee,et al. Kinetics of oxygen discharges and I(2P1/2) excitation for EOIL , 2007, SPIE LASE.
[5] David L. Carroll,et al. Measurement of positive gain on the 1315nm transition of atomic iodine pumped by O2(a1Δ) produced in an electric discharge , 2004 .
[6] W. T. Rawlins,et al. Dynamics of vibrationally excited ozone formed by three-body recombination. II. Kinetics and mechanism , 1987 .
[7] Ralph G. Pearson,et al. Kinetics and mechanism , 1961 .
[8] Steven J. Davis,et al. Surface-catalyzed singlet oxygen production on iodine oxide films , 2009 .
[9] W. T. Rawlins,et al. Catalytically enhanced singlet oxygen for EOIL , 2009, LASE.
[10] Richard M. Badger,et al. Absolute Intensities of the Discrete and Continuous Absorption Bands of Oxygen Gas at 1.26 and 1.065 μ and the Radiative Lifetime of the 1Δg State of Oxygen , 1965 .
[11] Wilson T. Rawlins,et al. Advanced Diagnostics and Kinetics of Oxygen-Iodine Laser Systems , 2005 .
[12] Ian M. Konen,et al. Catalytic Enhancement of Singlet Oxygen for Hybrid Electric Discharge Oxygen-Iodine Laser Systems , 2010 .
[13] Wilson T. Rawlins,et al. EOIL power scaling in a 1-5 kW supersonic discharge-flow reactor , 2008, SPIE LASE.
[14] G. Herzberg,et al. Molecular Spectra and Molecular Structure , 1992 .
[15] David A. Newnham,et al. Integrated absorption intensity and Einstein coefficients for the O2 a1Δg-X3Σg- (0,0) transition: a comparison of cavity ringdown and high resolution Fourier transform spectroscopy with a long-path absorption cell , 1999 .
[16] G. Herzberg,et al. Molecular Spectra and Molecular Structure: I. Spectra of Diatomic Molecules , 1944 .
[17] Seonkyung Lee,et al. Next generation diagnostics for COIL: new approaches for measuring critical parameters , 2005, International Symposium on High Power Laser Systems and Applications.
[18] Andrew D. Palla,et al. Exciplex pumped alkali laser (XPAL) modeling and theory , 2010, International Symposium on High Power Laser Systems and Applications.
[19] Andrew D. Palla,et al. Enhanced performance of an electric oxygen-iodine laser , 2010, LASE.
[20] William J. Kessler,et al. Progress in the development of sensors for COIL devices , 2000, LASE.
[21] T. Slanger,et al. Energetic oxygen in the upper atmosphere and the laboratory. , 2003, Chemical reviews.
[22] William J. Kessler,et al. Observations of gain on the I(P1∕22→P3∕22) transition by energy transfer from O2(aΔg1) generated by a microwave discharge in a subsonic-flow reactor , 2005 .
[23] Seonkyung Lee,et al. Production of metastable singlet oxygen in the reaction of nitric oxide with active oxygen , 2008, SPIE LASE.
[24] Paul H. Krupenie. The Spectrum of Molecular Oxygen , 1972 .
[25] David L. Carroll,et al. Continuous-wave laser oscillation on the 1315 nm transition of atomic iodine pumped by O 2 Ña 1 DÖ produced in an electric discharge , 2005 .
[26] S. Davis,et al. Transition probability and collision broadening of the 1.3-μm transition of atomic iodine , 1983 .
[27] S. J. Davis,et al. Spectroscopic studies of alkali atom-rare gas systems , 2010, LASE.
[28] C. Livermore,et al. A MEMS Singlet Oxygen Generator—Part II: Experimental Exploration of the Performance Space , 2007, Journal of microelectromechanical systems.