Imaging spectrometer for fugitive gas leak detection

被引:8
|
作者
Hinnrichs, M [1 ]
机构
[1] Pacific Adv Technol, Santa Ynez, CA 93460 USA
来源
ENVIRONMENTAL MONITORING AND REMEDIATION TECHNOLOGIES II | 1999年 / 3853卷
关键词
hyperspectral imaging; gas plume monitoring; diffractive lenses; imaging spectrometer; fugitive gas;
D O I
10.1117/12.372849
中图分类号
X [环境科学、安全科学];
学科分类号
08 ; 0830 ;
摘要
Under contract to the US Air Force and Navy, Pacific Advanced Technology has developed a very sensitive infrared imaging spectrometer that can perform remote imaging and spectro-radiometry. One of the most exciting applications for this technology is in the remote monitoring of smoke stack emissions and fugitive leaks. To date remote continuous emission monitoring (CEM) systems have not been approved by the EPA, however, they are under consideration. If the remote sensing technology is available with the sensitivity to monitor emission at the required levels and man portable it can reduce the cost and improve the reliability of performing such measurements. Pacific Advanced Technology (PAT) believes that it currently has this technology available to industry. This paper will present results from a field test where gas vapors during a refueling process were imaged and identified. In addition images of propane from a leaking stove will be presented. We at PAT have developed a real time image processing board that enhances the signal to noise ratio of low contrast gases and makes them easily viewable using the Image MultiSpectral Sensing (IMSS) imaging spectrometer. The IMSS imaging spectrometer is the size of a camcorder. Currently the data is stored in a Notebook computer thus allowing the system to be easily carried into power plants to look for fugitive leaks. In the future the IMSS will have an embedded processor and DSP and will be able to transfer data over an Ethernet link.
引用
收藏
页码:152 / 161
页数:10
相关论文
共 50 条
  • [41] INFRARED IMAGING FOURIER TRANSFORM SPECTROMETER AS THE STAND-OFF GAS DETECTION SYSTEM
    Kastek, Mariusz
    Piatkowski, Tadeusz
    Trzaskawka, Piotr
    METROLOGY AND MEASUREMENT SYSTEMS, 2011, 18 (04) : 607 - 620
  • [42] A photoacoustic spectrometer for trace gas detection
    Telles, EM
    Bezerra, E
    Scalabrin, A
    JOURNAL DE PHYSIQUE IV, 2005, 125 : 885 - 888
  • [43] From chemical agent alarm to fugitive vapor detection: Development of a rugged commercial spectrometer
    Costello, W
    Simonds, JA
    Milchling, S
    ELECTRO-OPTICAL TECHNOLOGY FOR REMOTE CHEMICAL DETECTION AND IDENTIFICATION, 1996, 2763 : 186 - 197
  • [44] Development of a gas leak detection method based on infrared spectrum imaging utilizing microbolometer camera
    Sakagami, Takahide
    Anzai, Hiroaki
    Kubo, Shiro
    THERMOSENSE: THERMAL INFRARED APPLICATIONS XXXIII, 2011, 8013
  • [45] Development and field test results of a novel multispectral imaging system for natural gas leak detection
    Bylsma, Jason
    Coburn, Frederick
    McArthur, Thomas
    IMAGING SPECTROMETRY XXV: APPLICATIONS, SENSORS, AND PROCESSING, 2022, 12235
  • [46] An ANN-based Embedded Hardware for Gas Leak Detection using a SWIR Imaging System
    Alhosani, A.
    Alhmoudi, F.
    Almurshidi, M.
    Meribout, M.
    AI AND OPTICAL DATA SCIENCES, 2020, 11299
  • [47] Detection of keystone in imaging spectrometer data
    Neville, RA
    Sun, LX
    Staenz, K
    ALGORITHMS AND TECHNOLOGIES FOR MULTISPECTRAL, HYPERSPECTRAL, AND ULTRASPECTRAL IMAGERY X, 2004, 5425 : 208 - 217
  • [48] Leak detection method for bottom plate of oil tank based on oil/gas leak detection
    Wang, Fei
    Shui, Aishe
    Zeng, Libei
    INTERNATIONAL JOURNAL OF HEAT AND TECHNOLOGY, 2018, 36 (03) : 997 - 1004
  • [49] Acoustic Imaging Method for Gas Leak Detection and Localization Using Virtual Ultrasonic Sensor Array
    Liang, Mu
    Yang, Kuan
    Feng, Mingyang
    Mu, Kaijun
    Jiao, Mingqi
    Li, Lei
    SENSORS, 2024, 24 (05)
  • [50] AIR-MASS SPECTROMETER LEAK DETECTION USING THE SPECIAL AIR LEAK TEST (SALT) CART
    SOLOMON, GM
    JOURNAL OF VACUUM SCIENCE & TECHNOLOGY A-VACUUM SURFACES AND FILMS, 1984, 2 (02): : 1157 - 1161