首页> 外文会议>2009 First International Conference on Advancements in Nuclear Instrumentation Measurement Methods and their Applications >New developments of scintillating crystal-based hybrid single photon detectors (X-HPDs) for charged particle and neutrino detection applications
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New developments of scintillating crystal-based hybrid single photon detectors (X-HPDs) for charged particle and neutrino detection applications

机译:基于闪烁晶体的混合单光子探测器(X-HPD)的新发展,用于带电粒子和中微子探测应用

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Scintillating crystal-based hybrid photon detectors have been demonstrated as viable single photon detectors since 1996 in the Lake Baikal neutrino telescope. Prior to this, the Philips XP2600 was developed under the DUMAND program, while more recently, developments at CERN have demonstrated the advantages of a true concentric geometry with a scintillator at the geometric centre of a spherical photocathode, giving almost 100% electrostatic collection efficiency over 3π solid angle coverage. We began the development of a new series of quasi-spherical crystal hybrid photon detectors (the Photonis XP2608 series) for use in the future KM3NeT cubic kilometer-scale deep sea neutrino telescope. The thrust of this R&D was to investigate the industrialization of the crystal hybrid photon detector to the point where it would represent a significant cost reduction per cubic kilometer of instrumented volume compared to conventional large photomultipliers, thereby allowing extremely large telescope target volumes. Such gains would arise through an all-glass envelope, ‘internal’ processing of the photocathode, and from the use of an inexpensive scintillating crystal or deposited phosphor viewed by a small photomultiplier. Details of these developments are presented.
机译:自1996年以来,基于闪烁晶体的混合光子探测器已在贝加尔湖中微子望远镜中被证明是可行的单光子探测器。在此之前,Philips XP2600是在DUMAND计划下开发的,而最近,欧洲核子研究组织(CERN)的开发已经证明了真正同心的几何结构的优势,其中闪烁体位于球形光电阴极的几何中心,提供了几乎100%的静电收集效率。 3π立体角覆盖。我们开始开发新系列的准球形晶体混合光子探测器(Photonis XP2608系列),用于未来的KM3NeT立方公里规模的深海中微子望远镜。这项研究的重点是研究晶体混合光子探测器的工业化程度,以使其与传统的大型光电倍增器相比,每立方公里仪器体积的成本大大降低,从而可以实现非常大的望远镜目标体积。这样的收益将通过全玻璃外壳,对光电阴极的“内部”处理以及通过使用廉价的闪烁晶体或通过小型光电倍增管观察到的沉积磷光体而产生。提出了这些发展的细节。

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