Wavelength selection for long range laser vibration sensing

被引:1
作者
Fontanella, JF [1 ]
Roberts, DE [1 ]
Shoup, DR [1 ]
机构
[1] DEOS, Bloomfield, CT 06002 USA
来源
LASER RADAR TECHNOLOGY AND APPLICATIONS III | 1998年 / 3380卷
关键词
laser radar; laser vibration sensing; microdoppler; ladar; eye safety; eyesafe; target identification; atmospheric turbulence; atmospheric extinction; speckle;
D O I
10.1117/12.327211
中图分类号
V [航空、航天];
学科分类号
08 ; 0825 ;
摘要
The possibility of using remote laser vibration measurement for target identification and other purposes continues to attract interest and research in several countries. In the past, the only available laser technology capable of providing, in a compact transmitter package, the required single-frequency laser power for long range laser vibration sensing against unenhanced targets, was CO, laser technology. Recent developments in laser transmitter technology have opened up the possibility of using solid state lasers operating in the eyesafe region (wavelength > 1.4 mu m) as the transmitter in future long range laser vibration sensors. This paper discusses some of the factors which must be considered in selecting a laser transmitter source for such systems. These factors include vibration measurement sensitivity at the required operating ranges, atmospheric extinction, pointing and tracking requirements, atmospheric turbulence, and eye safety. We conclude that selection of the operating wavelength and transmitter technology must be tailored to each individual application, and should not be presumed to be a foregone conclusion.
引用
收藏
页码:107 / 124
页数:18
相关论文
共 50 条
  • [31] Coordinated multi-wavelength laser system propagation experiments
    Steinvall, Ove
    Sjoqvist, Lars
    Berglund, Folke
    Allard, Lars
    Larsson, Tomas
    Karlsson, Kjell
    Gustafsson, Frank
    Kullander, Fredrik
    Sakari, Per
    Andersson, Pierre
    Elmquist, Magnus
    ATMOSPHERIC PROPAGATION III, 2006, 6215
  • [32] Selection of Path and Wavelength for Setting up a Free Space Optical Link
    Kanth, Krishna Y.
    Majhi, Sudhan
    Gupta, Sumanta
    PROCEEDINGS OF THE 2016 IEEE STUDENTS' TECHNOLOGY SYMPOSIUM (TECHSYM), 2016, : 24 - 29
  • [33] Laser radar range profile analysis and simulation
    Chen Jianbiao
    Sun Huayan
    Zhao Yanzhong
    Shan Congmiao
    AOPC 2017: OPTICAL SENSING AND IMAGING TECHNOLOGY AND APPLICATIONS, 2017, 10462
  • [34] Laser one-dimensional range profile
    Li Yan-Hui
    Wu Zhen-Sen
    Gong Yan-Jun
    Zhang Geng
    Wang Ming-Jun
    ACTA PHYSICA SINICA, 2010, 59 (10) : 6988 - 6993
  • [35] Incoherent pulse compression in laser range finder
    Grodensky, Daniel
    Kravitz, Daniel
    Arbel, Nadav
    Levanon, Nadav
    Zadok, Avi
    LASER RADAR TECHNOLOGY AND APPLICATIONS XIX; AND ATMOSPHERIC PROPAGATION XI, 2014, 9080
  • [36] Monolithic Integrated Linear Frequency Modulated Dual- Wavelength DFB Laser Chip with High Linearity and Its Application in Long Distance Ranging
    Zhang, Yunshan
    Xu, Yifan
    Shi, Jianqin
    Zhao, Tongfei
    Li, Pu
    Guan, Shijian
    Li, Lianyan
    Zhang, Xin
    Zheng, Jilin
    Fang, Tao
    Chen, Xiangfei
    Wang, Yuncai
    ACS PHOTONICS, 2023, 10 (07) : 2344 - 2352
  • [37] Pseudo-vibration sensitivities for commercial laser vibrometers
    Martin, Peter
    Rothberg, Steven J.
    MECHANICAL SYSTEMS AND SIGNAL PROCESSING, 2011, 25 (07) : 2753 - 2765
  • [38] A compact, short-pulse laser for near-field, range-gated imaging
    Zutavern, FJ
    Helgeson, WD
    Loubriel, GM
    Yates, GJ
    Gallegos, RA
    McDonald, TE
    22ND INTERNATIONAL CONGRESS ON HIGH-SPEED PHOTOGRAPHY AND PHOTONICS, 1997, 2869 : 464 - 471
  • [39] MAXIMUM-LIKELIHOOD LASER-RADAR RANGE PROFILING WITH THE EXPECTATION-MAXIMIZATION ALGORITHM
    GREEN, TJ
    SHAPIRO, JH
    OPTICAL ENGINEERING, 1992, 31 (11) : 2343 - 2354
  • [40] Three dimensional imaging laser radar system for short-range target detection and identification
    Li Ping
    Li Kun
    Chen Huimin
    Gou Weirong
    LASER RADAR TECHNOLOGY AND APPLICATIONS XIII, 2008, 6950