Stabilized diode seed laser for flight and space-based remote lidar sensing applications

被引:1
|
作者
McNeil, Shirley [1 ]
Pandit, Pushkar [1 ]
Battle, Philip [1 ]
Rudd, Joe [2 ]
Hovis, Floyd [2 ]
机构
[1] AdvR Inc, 2310 Univ Way, Bozeman, MT 59715 USA
[2] Fibertek Inc, 13605 Dulles Technol Dr, Herndon, VA 20176 USA
关键词
Frequency conversion; single-frequency laser; space qualification; non-linear crystal; frequency-stabilized; periodically-poled nonlinear waveguides; seed laser;
D O I
10.1117/12.2275559
中图分类号
X [环境科学、安全科学];
学科分类号
08 ; 0830 ;
摘要
AdvR, through support of the NASA SBIR program, has developed fiber-based components and sub-systems that are routinely used on NASA's airborne missions, and is now developing an environmentally hardened, diode-based, locked wavelength, seed laser for future space-based high spectral resolution lidar applications. The seed laser source utilizes a fiber-coupled diode laser, a fiber-coupled, calibrated iodine reference module to provide an absolute wavelength reference, and an integrated, dual-element, nonlinear optical waveguide component for second harmonic generation, spectral formatting and wavelength locking. The diode laser operates over a range close to 1064.5 nm, provides for stabilization of the seed to the desired iodine transition and allows for a highly-efficient, fully-integrated seed source that is well-suited for use in airborne and space-based environments. A summary of component level environmental testing and spectral purity measurements with a seeded Nd: YAG laser will be presented. A direct-diode, wavelength-locked seed laser will reduce the overall size weight and power (SWaP) requirements of the laser transmitter, thus directly addressing the need for developing compact, efficient, lidar component technologies for use in airborne and space-based environments.
引用
收藏
页数:13
相关论文
共 50 条
  • [31] NIST activities in support of space-based radiometric remote sensing
    Rice, JP
    Johnson, BC
    [J]. HARNESSING LIGHT: OPTICAL SCIENCE AND METROLOGY AT NIST, 2001, 4450 : 108 - 126
  • [32] Space-based application of the CAN laser to LIDAR and orbital debris remediation
    Quinn, M. N.
    Jukna, V.
    Ebisuzaki, T.
    Dicaire, I.
    Soulard, R.
    Summerer, L.
    Couairon, A.
    Mourou, G.
    [J]. EUROPEAN PHYSICAL JOURNAL-SPECIAL TOPICS, 2015, 224 (13): : 2645 - 2655
  • [33] Space-based application of the CAN laser to LIDAR and orbital debris remediation
    M. N. Quinn
    V. Jukna
    T. Ebisuzaki
    I. Dicaire
    R. Soulard
    L. Summerer
    A. Couairon
    G. Mourou
    [J]. The European Physical Journal Special Topics, 2015, 224 : 2645 - 2655
  • [34] UV Lifetime Laser Demonstrator for Space-Based Applications
    Albert, Michael
    Puffenburger, Kent
    Schum, Tom
    Fitzpatrick, Fran
    Litvinovitch, Slava
    Jones, Darrell
    Rudd, Joseph
    Hovis, Floyd
    [J]. LIDAR REMOTE SENSING FOR ENVIRONMENTAL MONITORING XV, 2015, 9612
  • [35] Using space-based remote sensing for improved global navigation & communication
    McCoy, RP
    [J]. IGARSS 2003: IEEE INTERNATIONAL GEOSCIENCE AND REMOTE SENSING SYMPOSIUM, VOLS I - VII, PROCEEDINGS: LEARNING FROM EARTH'S SHAPES AND SIZES, 2003, : 1016 - 1018
  • [36] Space-based remote sensing yielding new insights into climate change
    [J]. Wheeler, Michael D. (michael.wheeler@photonics.com), 1600, Laurin Publishing Co. Inc. (50):
  • [37] Space-Based Remote Sensing Yielding New Insights into Climate Change
    Wheeler, Michael D.
    [J]. PHOTONICS SPECTRA, 2016, 50 (04) : 42 - 49
  • [38] International space-based remote sensing overview: 1980-2007
    Glackin, D.L.
    [J]. Canadian Journal of Remote Sensing, 1998, 24 (03): : 307 - 314
  • [39] Space based remote sensing applications for archaeology
    Rajani, M. B.
    [J]. INTERNATIONAL CONFERENCE ON SPACE INFORMATION TECHNOLOGY 2009, 2010, 7651
  • [40] LIMITS OF SPACE-BASED REMOTE-SENSING FOR METHANE SOURCE CHARACTERIZATION
    ASHCROFT, P
    MOREL, B
    [J]. IEEE TRANSACTIONS ON GEOSCIENCE AND REMOTE SENSING, 1995, 33 (05): : 1124 - 1134