The fourth-generation Water Vapor Millimeter-Wave Spectrometer

被引:14
|
作者
Gomez, R. Michael [1 ]
Nedoluha, Gerald E. [1 ]
Neal, Helen L. [2 ]
McDermid, I. Stuart [3 ]
机构
[1] USN, Remote Sensing Div, Res Lab, Washington, DC 20375 USA
[2] Computat Phys Inc, Springfield, VA 22151 USA
[3] Jet Prop Lab, Table Mt Facil, Wrightwood, CA 92397 USA
关键词
MIDDLE ATMOSPHERE; RADIOMETER;
D O I
10.1029/2011RS004778
中图分类号
P1 [天文学];
学科分类号
0704 ;
摘要
For 20 years the Naval Research Laboratory has been making continuous water vapor profile measurements at 22.235 GHz with the Water Vapor Millimeter-Wave Spectrometer (WVMS) instruments, with the program expanding from one to three instruments in the first 6 years. Since the initial deployments there have been gradual improvements in the instrument design which have improved data quality and reduced maintenance requirements. Recent technological developments have made it possible to entirely redesign the instrument and improve not only the quality of the measurements but also the capability of the instrument. We present the fourth-generation instrument now operating at Table Mountain, California, which incorporates the most recent advances in microwave radiometry. This instrument represents the most significant extension of our measurement capability to date, enabling us to measure middle atmospheric water vapor from similar to 26-80 km.
引用
收藏
页数:11
相关论文
共 50 条
  • [21] Development of an integrated millimeter-wave Fourier transform spectrometer
    Barker, NS
    Shen, H
    Gernandt, T
    CHEMICAL AND BIOLOGICAL STANDOFF DETECTION, 2003, 5268 : 61 - 66
  • [22] The effect of clouds on water vapor profiling from the millimeter-wave radiometric measurements
    Wang, JR
    Spinhirne, JD
    Racette, P
    Chang, LA
    Hart, W
    JOURNAL OF APPLIED METEOROLOGY, 1997, 36 (09): : 1232 - 1244
  • [23] Measuring Water Vapor and Ash in Volcanic Eruptions With a Millimeter-Wave Radar/Imager
    Bryan, Sean
    Clarke, Amanda
    Vanderkluysen, Loyc
    Groppi, Christopher
    Paine, Scott
    Bliss, Daniel W.
    Aberle, James
    Mauskopf, Philip
    IEEE TRANSACTIONS ON GEOSCIENCE AND REMOTE SENSING, 2017, 55 (06): : 3177 - 3185
  • [24] MILLIMETER-WAVE LINES OF HEAVY WATER
    ERLANDSSON, G
    COX, J
    JOURNAL OF CHEMICAL PHYSICS, 1956, 25 (04): : 778 - 779
  • [25] Photonic Signal Generation for Millimeter-Wave Communications
    Nanzer, Jeffrey A.
    Callahan, Patrick T.
    Dennis, Michael L.
    Clark, Thomas R., Jr.
    JOHNS HOPKINS APL TECHNICAL DIGEST, 2012, 30 (04): : 299 - 308
  • [26] Optical millimeter-wave generation techniques: An overview
    Dar, Aasif Bashir
    Ahmad, Faroze
    OPTIK, 2022, 258
  • [27] Millimeter-Wave Frequency Generation and Synthesis in Silicon
    Heydari, Payam
    2018 IEEE CUSTOM INTEGRATED CIRCUITS CONFERENCE (CICC), 2018,
  • [28] Microchip laser for microwave and millimeter-wave generation
    Vieira, AJ
    Herczfeld, PR
    Contarino, VM
    1997 SBMO/IEEE MTTS-S - INTERNATIONAL MICROWAVE AND OPTOELECTRONICS CONFERENCE, PROCEEDINGS, VOLS 1 AND 2, 1997, : 333 - 337
  • [29] OPTICAL TECHNIQUES FOR MICROWAVE MILLIMETER-WAVE GENERATION
    CHANG, K
    TAYLOR, HF
    WEICHOLD, M
    PARK, C
    MCGREGOR, D
    MARTIN, TS
    YOST, D
    OPTICAL TECHNOLOGY FOR MICROWAVE APPLICATIONS IV, 1989, 1102 : 107 - 112
  • [30] Techniques for photonic generation of millimeter-wave signals
    Kashyap, Raman
    Yao, Jianping
    Wu, Ke
    Zhang, Xiupu
    2007 DIGEST OF THE LEOS SUMMER TOPICAL MEETINGS, 2007, : 188 - +