REMOTE BIODETECTION PERFORMANCE OF A PULSED MONOSTATIC LIDAR SYSTEM

被引:12
|
作者
YEE, E
KOSTENIUK, PR
ROY, G
EVANS, BTN
机构
[1] DEF RES ESTAB VALCARTIER,DIV ENERGET MAT,BOX 8800,COURCELETTE G0A 1R0,QUEBEC,CANADA
[2] UNIV SASKATCHEWAN,DEPT PHYS,SASKATOON S7N 0W0,SASKATCHEWAN,CANADA
来源
APPLIED OPTICS | 1992年 / 31卷 / 15期
关键词
LIDAR; DETECTION PERFORMANCE; NONPARAMETRIC STATISTICS; BIOLOGICAL AEROSOLS;
D O I
10.1364/AO.31.002900
中图分类号
O43 [光学];
学科分类号
070207 ; 0803 ;
摘要
A monostatic pulsed lidar system called the laser cloud mapper was operated at the lidar range facility at the Defence Research Establishment Valcartier for 2 weeks during the autumn of 1990 to determine and assess its sensitivity for the remote detection of airborne biological organisms. The methodology called for the measurement of the depolarization of the lidar return signals that were backscattered from a biological aerosol cloud introduced into a large outdoor aerosol chamber. The test aerosol was produced by aerosolization of bacterial spores suspended in tap water; the relative concentration (by volume) of the bacterial material in tap water was varied from 1.0 to 0.001%. The detection performance of the laser cloud mapper is characterized through the ordered statistics of the depolarization ratio (e.g., sample distribution functions, quantile-quantile plots, and shift functions). In addition, a robust detection statistic based on the alpha-trimmed mean has been considered and the bootstrap-resampling method has been utilized to estimate uncertainties or confidence limits for this statistic. The receiver-operating characteristic curves of the laser cloud mapper (i.e., the probability of detection, P(D), versus the probability of false alarm, P(FA)) for both the empirical distribution function and the linearly thresholded, trimmed mean-level detectors are presented as a function of the source concentration of the test aerosol.
引用
收藏
页码:2900 / 2913
页数:14
相关论文
共 50 条
  • [1] REMOTE MEASUREMENT OF WIND SPEEDS BY MONOSTATIC LIDAR
    LEUTHNER, TG
    ELORANTA, EW
    TRANSACTIONS-AMERICAN GEOPHYSICAL UNION, 1975, 56 (09): : 599 - 599
  • [2] MONOSTATIC AND BISTATIC LIDAR TECHNIQUES FOR REMOTE-SENSING OF AEROSOLS
    REAGAN, JA
    HERMAN, BM
    AEROSOL SCIENCE AND TECHNOLOGY, 1983, 2 (02) : 197 - 198
  • [3] ANALYSIS FOR PULSED COHERENT LIDAR SYSTEM PERFORMANCE
    HUFFAKER, RM
    MANDICS, PA
    JOURNAL OF THE OPTICAL SOCIETY OF AMERICA, 1978, 68 (04) : 541 - 541
  • [4] MONOSTATIC HETERODYNE LIDAR PERFORMANCE - THE EFFECT OF THE TURBULENT ATMOSPHERE
    CLIFFORD, SF
    WANDZURA, S
    APPLIED OPTICS, 1981, 20 (03): : 514 - 516
  • [5] Diffusion patterns of a pulsed laser beam seen by a monostatic and a bistatic CCD lidar
    Oppel, UG
    13TH INTERNATIONAL WORKSHOP ON LIDAR MULTIPLE SCATTERING EXPERIMENTS, 2005, 5829 : 193 - 208
  • [6] Optical system design of monostatic nonscanning Doppler wind lidar
    Peng, Zhangxian
    Liu, Bo
    Yue, Yongjian
    Qiangjiguang Yu Lizishu/High Power Laser and Particle Beams, 2015, 27 (09):
  • [7] MONOSTATIC LIDAR STUDIES OF RAINFALL
    SHIPLEY, ST
    ELORANTA, EW
    TRANSACTIONS-AMERICAN GEOPHYSICAL UNION, 1975, 56 (09): : 598 - 598
  • [8] Utilization of pulsed diode lasers to lidar remote sensing
    Penchev, S
    Pencheva, V
    Naboko, V
    Naboko, S
    Simeonov, P
    11TH INTERNATIONAL SCHOOL ON QUANTUM ELECTRONICS: LASER PHYSICS AND APPLICATIONS, 2001, 4397 : 491 - 495
  • [9] Feasibility investigation of a monostatic imaging lidar with a parallel-placed image sensor for atmospheric remote sensing
    Kong, Zheng
    Ma, Teng
    Cheng, Yuan
    Zhang, Zhen
    Li, Yichen
    Liu, Kun
    Mei, Liang
    JOURNAL OF QUANTITATIVE SPECTROSCOPY & RADIATIVE TRANSFER, 2020, 254
  • [10] Lidar system for remote environmental studies
    Gondal, MA
    Mastromarino, J
    TALANTA, 2000, 53 (01) : 147 - 154