Fiber optic sensors for the monitoring of cryogenic spacecraft tank structures

被引:17
|
作者
Latka, I [1 ]
Ecke, W [1 ]
Höfer, B [1 ]
Chojetzki, C [1 ]
Reutlinger, A [1 ]
机构
[1] IPHT, D-07745 Jena, Germany
关键词
fiber Bragg grating; fiber optic sensor; hydrogen sensor; temperature sensor; strain sensor; palladium foil; liquid hydrogen tank;
D O I
10.1117/12.567353
中图分类号
TP7 [遥感技术];
学科分类号
081102 ; 0816 ; 081602 ; 083002 ; 1404 ;
摘要
As a part of the surveillance system for liquid hydrogen tanks which is developed for future space programs of the European Space Agency, we have investigated hydrogen sensors, temperature sensors. and strain sensors. all of them based on fiber optic Bragg gratings. We present a new type of hydrogen sensor in the form of a micro-bending beam consisting of a D-shaped elliptical core fiber with an inscribed Bragg grating and a 2-10mum thin palladium foil glued onto the flat side of the fiber. The strain sensors are embedded in the inner tank wall, i.e., they are designed to function properly down to minimum temperatures of 20K. Temperature sensors are required for the separation of hydrogen or strain effects, respectively, from temperature influences. They measure the thermal elongation of glass substrates with particular sensitivity at cryogenic temperatures. The reversible shift of the Bragg wavelength which is caused by the elongation of the Bragg gratings in the multi-sensor network is monitored by a polychromator based signal processing unit.
引用
收藏
页码:195 / 204
页数:10
相关论文
共 50 条
  • [21] FIBER OPTIC SENSORS FOR SMART STRUCTURES
    MEASURES, RM
    LEBLANC, M
    LIU, K
    FERGUSON, S
    VALIS, T
    HOGG, D
    TURNER, R
    MCEWEN, K
    OPTICS AND LASERS IN ENGINEERING, 1992, 16 (2-3) : 127 - 152
  • [22] Cryogenic fiber optic temperature sensors based on fiber Bragg gratings
    Yeager, C. J.
    McGee, C.
    Maklad, M.
    Swinehart, P. R.
    ADVANCES IN CRYOGENIC ENGINEERING, VOLS 51A AND B, 2006, 823 : 267 - +
  • [23] Monitoring of multi-material structures for offshore applications with fiber optic sensors
    Grandal, T.
    Perez, D.
    Dasilva, S.
    de la Mano, R.
    Fraga, S.
    Mera, L.
    Rodriguez, E.
    SEVENTH EUROPEAN WORKSHOP ON OPTICAL FIBRE SENSORS (EWOFS 2019), 2019, 11199
  • [24] Crack Monitoring on Concrete Structures using Robust Distributed Fiber Optic Sensors
    Herbers, Max
    Richter, Bertram
    Marx, Steffen
    EUROPEAN ASSOCIATION ON QUALITY CONTROL OF BRIDGES AND STRUCTURES, EUROSTRUCT 2023, VOL 6, ISS 5, 2023, : 644 - 653
  • [25] Versions of Fiber-Optic Sensors for Monitoring the Technical Condition of Aircraft Structures
    Lvov, Nikolai L.
    Khabarov, Stanislav S.
    Todorov, Alexander V.
    Barabanov, Alexander A.
    CIVIL ENGINEERING JOURNAL-TEHRAN, 2018, 4 (12): : 2895 - 2902
  • [26] New generation of Fabry-Perot fiber optic sensors for monitoring of structures
    Choquet, P
    Juneau, F
    Bessette, J
    SMART STRUCTURES AND MATERIALS 2000: SENSORY PHENOMENA AND MEASUREMENT INSTRUMENTATION FOR SMART STRUCTURES AND MATERIALS, 2000, 3986 : 418 - 426
  • [27] Nonintrusive fiber optic diagnostic for monitoring spacecraft contamination
    Fitzpatrick, C
    Abid, M
    Netherwood, G
    Ketsdever, AD
    Haas, J
    OPTICAL DIAGNOSTICS FOR FLUIDS, SOLIDS, AND COMBUSTIONS II, 2003, 5191 : 234 - 243
  • [28] Fiber-Optic Bragg Grating Sensors at Cryogenic Temperatures
    Habisreuther, Tobias
    Ecke, Wolfgang
    Latka, Ines
    Schroeder, Kerstin
    Willsch, Reinhardt
    FOURTH EUROPEAN WORKSHOP ON OPTICAL FIBRE SENSORS, 2010, 7653
  • [29] Fiber optic sensors for predictive health monitoring
    Borinski, JW
    Boyd, CD
    Dietz, JA
    Duke, JC
    Horne, MR
    IEEE SYSTEMS READINESS TECHNOLOGY CONFERENCE: 2001 IEEE AUTOTESTCON PROCEEDINGS, 2001, : 250 - 262
  • [30] Monitoring roller bearings with fiber optic sensors
    Hoffmann, Lars
    Mueller, Mathias S.
    Sommavilla, Markus
    Koch, Alexander W.
    TM-TECHNISCHES MESSEN, 2007, 74 (04) : 204 - 210