Quantum cascade laser spectroscopy of N2O in the 7.9 μm region for the in situ monitoring of the atmosphere

Journal of Quantitative Spectroscopy and Radiative Transfer

Volumn 109, Issue 10, 2008, Pages 1845-1855

  Grossel, Agnès ^a   Zéninari, Virginie ^a   Parvitte, Bertrand ^a   Joly, Lilian ^a   Courtois, Daniel ^a   Durry, Georges ^a,b  

^a CNRS   (France)

^b INSTITUT PIERRE SIMON LAPLACE   (France)

Author keywords

Nitrous oxide; Quantum cascade laser; Spectroscopic parameters

Indexed keywords

METEOROLOGY; MONITORING; NITROGEN OXIDES; QUANTUM CASCADE LASERS; RADIATIVE TRANSFER; TEMPERATURE;

QUANTUM CASCADE LASER SPECTROSCOPY; SPECTROSCOPIC PARAMETERS;

LASER SPECTROSCOPY;

BALLOON OBSERVATION; DATABASE; IN SITU MEASUREMENT; LASER; MONITORING SYSTEM; NITROUS OXIDE; SPECTROSCOPY;

EID: 43449103124     PISSN: 00224073     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.jqsrt.2007.12.002     Document Type: Article

References (28)

1. Moreau G., Robert C., Catoire V., Chartier M., Camy-Peyret C., Huret N., et al. SPIRALE: a multispecies in situ balloonborne instrument with six tunable diode laser spectrometers. Appl Opt 44 (2005) 5972
2. Rothman L.S., Jacquemart D., Barbe A., Chris Benner D., Birk M., Brown L.R., et al. The HITRAN 2004 molecular spectroscopic database. JQSRT 96 (2005) 139
3. Zéninari V., Parvitte B., Joly L., Le Barbu T., Amarouche N., and Durry G. Laboratory spectroscopic calibration of infrared tunable laser spectrometers for the in situ sensing of the Earth and Martian atmospheres. Appl Phys B Lasers Opt 85 (2006) 265
4. Courtois D., Delahaigue A., Thiébeaux C., Le Corre H., and Mouanda J.C. Adjustable-temperature and multiple-path optical cell for ozone spectroscopy. J Phys E 21 (1988) 863
5. Gamache R.R., Kennedy S., Hawkins R., and Rothman L.S. Total internal partition sums for molecules in the terrestrial atmosphere. J Mol Struct 517 (2000) 407
6. Bevington P.R. Data reduction and error analysis for the physical sciences (1969), McGraw-Hill Book Company, New York
7. 2O line strengths from high-resolution Fourier transform spectra. J Mol Spectrosc 103 (1984) 160
8. 2O using a tunable diode laser. JQSRT 41 (1989) 359
9. Rothman L.S., Barbe A., Chris Benner D., Brown L.R., Camy-Peyret C., Carleer M.R., et al. The HITRAN molecular spectroscopic database: edition of 2000 including updates through 2001. JQSRT 82 (2003) 5
10. McClatchey R.A., Benedict W.S., Clough S.A., Burch D.E., Calfee R.F., Fox K., et al. AFCRL atmospheric absorption line parameters compilation (1973), AFCRL, Bedford, MA [AFCRL-TR-0096]
11. Rothman L.S., Gamache R.R., Goldman A., Brown L.R., Toth R.A., Pickett H.M., et al. Appl Opt 26 (1987) 4058
12. -1 region. Appl Opt 23 (1984) 1825
13. 2O. Appl Opt 32 (1993) 7326
14. -1. J Mol Spectrosc 197 (1999) 158
15. 2O band near 8 μm. J Mol Spectrosc 228 (2004) 213
16. 2O lines: temperature dependence of linewidths. Appl Opt 23 (1984) 425
17. 2O. JQSRT 66 (2000) 285
18. 3-fundamental band of nitrous oxide at atmospheric temperatures. JQSRT 83 (2004) 267
19. 16O at atmospheric temperatures. JQSRT 41 (1989) 351
20. 2O. JQSRT 54 (1995) 957
21. -1 range for atmospheric applications. JQSRT 75 (2002) 493
22. 2 and He in the 1.39 μm region: experiment and calculations. Mol Phys 102 (2004) 1697
23. 2O near 1.39 μm: application to the in situ sensing of the middle atmosphere with balloonborne diode lasers. JQSRT 94 (2005) 387
24. 2 in the 1.6 μm region for the in situ sensing of the middle atmosphere. JQSRT 83 (2004) 619
25. 2 around 1.6 and 2.0 μm: a comparison between Fourier transform and diode laser measurements. JQSRT 101 (2006) 325
26. -1 for Lidar applications. JQSRT 109 (2008) 426
27. 2 using a continuous wave DFB QCL at 9.1 μm. Appl Phys B Lasers Opt 77 (2003) 703
28. 2. JQSRT 105 (2007) 312