Environmental testing of long wave infrared (LWIR) windows

被引:4
|
作者
Kelly, ES
Ondercin, RJ
Detrio, JA
Greason, PR
机构
来源
WINDOW AND DOME TECHNOLOGIES AND MATERIALS V | 1997年 / 3060卷
关键词
IR windows; rain erosion; sand erosion; combined effects; ZnS;
D O I
10.1117/12.277066
中图分类号
V [航空、航天];
学科分类号
08 ; 0825 ;
摘要
Accurate and reliable testing is paramount to the development of LWIR window materials. Without appropriate characterization and testing, improvements to existing technologies are impossible to document with certainty. Reliable and repeatable testing provides the data needed to measure advancements and identify improvements in any technology. No single test can be completely definitive, and the continuous evaluation of emerging technologies using different test methods under varying conditions is critical when evaluating a new material's capability. The environmental testing of infrared (IR) window materials has traditionally consisted of rain erosion testing, single impact water jet testing, and sand erosion testing. While these three tests provide the materials engineer with significant insight into the durability of a window material, these tests have generally ignored the combined effect of rain and sand, This paper looks at the combined effect of rain and sand erosion on a standard LWIR window material, zinc sulfide (ZnS).
引用
收藏
页码:68 / 75
页数:8
相关论文
共 50 条
  • [31] Diffractive waveplates for long wave infrared
    Ouskova, Elena
    Roberts, David
    Tabiryan, Nelson
    Steeves, D. M.
    Kimball, B. R.
    MICRO- AND NANOTECHNOLOGY SENSORS, SYSTEMS, AND APPLICATIONS IX, 2017, 10194
  • [32] Hydrogenated amorphous silicon germanium films doped with nitrogen (a-SiGe:H,N) to improve the long-wave infrared (LWIR) region absorption
    Velandia, Oscar
    Moreno, Mario
    Zavala, Ricardo
    Morales, Alfredo
    Torres, Alfonso
    Zuniga, Carlos
    Rosales, Pedro
    Hernandez, Luis
    Carlos, Netzahualcoyotl
    2022 IEEE LATIN AMERICAN ELECTRON DEVICES CONFERENCE (LAEDC), 2022,
  • [33] LWIR multispectral quantum well infrared photodetectors
    Mitra, P
    Case, FC
    McCurdy, JH
    INFRARED TECHNOLOLGY AND APPLICATIONS XXIX, 2003, 5074 : 726 - 734
  • [34] WINDOWS FOR OPTICAL MEASUREMENTS AT HIGH PRESSURES AND LONG INFRARED WAVELENGTHS
    PAUL, W
    DEMEIS, WM
    BESSON, JM
    REVIEW OF SCIENTIFIC INSTRUMENTS, 1968, 39 (06): : 928 - &
  • [35] Long wave infrared (8 to 14 microns) hyperspectral imager based on an uncooled thermal camera and the traditional CI block interferometer (SI-LWIR-UC)
    Cabib, Dario
    Lavi, Moshe
    Gil, Amir
    Milman, Uri
    INFRARED TECHNOLOGY AND APPLICATIONS XXXVII, 2011, 8012
  • [36] MBE growth and properties of HgCdTe long wave and very long wave infrared detectors
    Rajavel, RD
    Wu, OK
    Jensen, JE
    Cockrum, CA
    Venzor, GM
    Patten, EA
    Goetz, PM
    Leonard, DB
    Johnson, SM
    COMPOUND SEMICONDUCTOR ELECTRONICS AND PHOTONICS, 1996, 421 : 335 - 340
  • [37] Long Wavelength Infrared (LWIR) AOTF and AOM Using Hg2Br2 Crystals
    Amarasinghe, Priyanthi M.
    Kim, Joo-Soo
    Trivedi, Sudhir
    Soos, Jolanta
    Diestler, Mark
    Jin, Feng
    Qadri, Syed B.
    Gupta, Neelam
    Jensen, Janet L.
    Jensen, James
    INFRARED SENSORS, DEVICES, AND APPLICATIONS VII, 2017, 10404
  • [38] 1.06μM/LWIR dual band antireflection coatings for optical windows
    Xiong, Changxin
    Yang, Linfeng
    Li, Qiantao
    ADVANCED OPTICAL MANUFACTURING TECHNOLOGIES, PTS 1 AND 2, 2007, 6722 : E7223 - E7223
  • [39] Long wave infrared transmission in atmospheric channel
    Cong, R. (541116696@qq.com), 1600, Chinese Society of Astronautics (43):
  • [40] HgCdTe Long-Wave Infrared Detectors
    Rhiger, David R.
    ADVANCES IN INFRARED PHOTODETECTORS, 2011, 84 : 303 - 331