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引用次数: 2
摘要
本文研究了光纤布拉格光栅(FBG)传感技术用于气体跟踪粒子探测器实时变形监测的可行性分析。我们关注的是一种微型气体探测器(micro - megas,即“微网状气体结构”(micro mesh gas structure, MM)的缩写),它是一种用于欧洲核子研究组织(CERN)大型强子对撞机(LHC) ATLAS实验的微型模式气体探测器。MM探测器正确操作的一个必要问题是精确监测其面板的平整度/变形。为此,提出了光纤光栅实时传感技术,因为它能够满足辐射硬度和对磁场不敏感的重要要求,并提供高灵敏度(分辨率为1 με)的局部应变检测。作为一个示范目标,在这项工作中,一些FBG传感器已经集成(表面附着)与微型MM探测器支撑面板,以研究它们在检测局部应变和弯曲方面的潜力/能力。实验结果表明,承受高辐射的光纤光栅传感器能够监测形变和曲率,符合高能物理要求。
Fiber Bragg Grating strain sensors for tracking particle detector
This work is devoted to a feasibility analysis of the use of Fiber Bragg Grating (FBG) sensing technology for real-time deformation monitoring of a gaseous tracking particle detector. Our attention is focused on a micromegas (an abbreviation for “micro mesh gaseous structure” (MM)), that is a micro pattern gas detector to be applied in Large Hadron Collider (LHC) at European Organization for Nuclear Research (CERN) in the ATLAS experiment. One mandatory issue for the correct operation of the MM detector is a precise monitoring of its panels' flatness/deformation. To this aim, FBG real-time sensing technology is proposed for its capability to meet important requirements in terms of radiation hardness and insensitivity to magnetic fields and to offer local strain detection with high sensitivity (resolution of 1 με). As a demonstrative target, in this work some FBG sensors have been integrated (surface attached) with a miniature MM detector support panel in order to investigate their potentialities/capabilities in detecting local strain and thus bending. The obtained experimental results confirm that FBG sensors, that tolerate high radiation, are able to monitor deformation and curvature in accord with high energy physics requirements.