Ground-Based Characterisation of a Compact Instrument for Gamma-ray Burst Detection on a CubeSat Platform

Rachel Dunwoody, D. Murphy, Alexey Uliyanov, Joe Mangan, M. Doyle, Joseph Thompson, Cuan de Barra, L. Hanlon, David J. McKeown, Brian Shortt, S. McBreen
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Abstract

Gamma-ray bursts (GRBs) are intense and short-lived cosmic explosions. Miniaturised CubeSat-compatible instruments for the study of GRBs are being developed to help bridge the gap in large missions and assist in achieving full sky coverage. CubeSats are small, compact satellites conforming to a design standard and have transformed the space industry. They are relatively low-cost and are developed on fast timescales, which has provided unparalleled access to space. This paper focuses on GMOD, the gamma-ray module, onboard the 2U CubeSat EIRSAT-1, launched on December 1st 2023. GMOD is a scintillation-based instrument with a cerium bromide crystal coupled to an array of sixteen silicon photomultipliers, designed for the detection of GRBs. The characterisation of GMOD in the spacecraft, along with the validation of an updated spacecraft MEGAlib model is presented and this approach can be followed by other CubeSats with similar science goals. The energy resolution of the flight model is 7.07% at 662 keV and the effective area peaks in the tens to hundreds of keV, making it a suitable instrument for the detection of GRBs. An investigation into the instrument’s angular response is also detailed. The results from this characterisation campaign are a benchmark for the instrument’s performance pre-launch and will be used to compare with the detector’s performance in orbit.
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立方体卫星平台上伽马射线暴探测紧凑型仪器的地基特性分析
伽马射线暴(GRBs)是一种强烈而短暂的宇宙爆炸。目前正在开发与立方体卫星兼容的小型化仪器,用于研究伽马射线暴,以弥补大型任务的不足,并协助实现全天空覆盖。立方体卫星是符合设计标准的小型紧凑卫星,已经改变了航天工业。它们的成本相对较低,开发速度快,为进入太空提供了无与伦比的机会。本文重点介绍 2023 年 12 月 1 日发射的 2U 立方体卫星 EIRSAT-1 上的伽马射线模块 GMOD。伽马射线模块是一种基于闪烁的仪器,配有一个与十六个硅光电倍增管阵列耦合的溴化铈晶体,设计用于探测伽马射线暴。报告介绍了 GMOD 在航天器中的特性,以及更新的航天器 MEGAlib 模型的验证情况,其他具有类似科学目标的立方体卫星也可以采用这种方法。飞行模型的能量分辨率在 662 keV 时为 7.07%,有效区域峰值在几十到几百 keV,使其成为探测 GRB 的合适仪器。此外,还对仪器的角度响应进行了详细调查。这次表征活动的结果是仪器发射前性能的基准,并将用于与探测器在轨道上的性能进行比较。
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