Towards the CAMELOT fleet of GRB detecting nano-satellites: the design concept of the 3U members based on the GRBAlpha and VZLUSAT-2 heritage

L. Mészáros, A. Pál, N. Werner, J. Řípa, M. Ohno, B. Csák, J. Kapuš, M. Frajt, J. Hudec, M. Rezenov, P. Hanák
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Abstract

Since transient events, such as gamma-ray bursts (GRBs), can be expected from any direction at any time, their detection and localization is difficult. For localizing transient events, we proposed the Cubesats applied for measuring and localising transients mission (CAMELOT), which will be a fleet of nanosatellites distributed evenly on low Earth orbits. As the first step, we designed a technical demonstration for the CAMELOT mission, named GRBAlpha. Even though this 1U satellite has a reduced size scintillator and different mechanical constraints, all the electronic subsystems and communication protocols are the same. GRBAlpha is operating in orbit since 2021 March 22 and it already detected numerous confirmed GRBs. For further details of the early results and ongoing operations see the related presentation at this conference. After this first success, we continue with the design of the 3U prototype of the CAMELOT satellite, which will host an eight times larger detector system integrated into two walls of the satellite. The main difference is the mechanical constraints of mounting the detector in its casing. While for GRBAlpha the reduced sized scintillator is located on the top (Z+) side of the satellite, for CAMELOT it is located on two of the sides. Since the CubeSat standard does not allow enough lateral extension on the sides, the casing has to be sunk into the satellite where it could interfere with the standard PC/104 stacking. Here, we present a solution on how to integrate the scintillator casing, the uniquely designed electronics and commercially available satellite subsystems.
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面向GRB探测纳米卫星CAMELOT舰队:基于GRBAlpha和VZLUSAT-2遗产的3U成员的设计概念
由于瞬态事件,如伽马射线暴(GRBs),可以在任何时间从任何方向预期,它们的检测和定位是困难的。为了对瞬变事件进行定位,我们提出了用于测量和定位瞬变任务的立方体卫星(CAMELOT),这将是一个均匀分布在近地轨道上的纳米卫星舰队。作为第一步,我们为CAMELOT任务设计了一个名为GRBAlpha的技术演示。即使这个1U卫星有一个缩小尺寸的闪烁体和不同的机械约束,所有的电子子系统和通信协议是相同的。GRBAlpha自2021年3月22日起在轨道上运行,已经探测到许多确认的grb。有关早期结果和正在进行的操作的进一步细节,请参阅本次会议的相关介绍。在第一次成功之后,我们继续设计CAMELOT卫星的3U原型,它将承载一个8倍大的探测器系统,集成在卫星的两个壁上。主要区别在于将探测器安装在其外壳中的机械约束。对于GRBAlpha来说,缩小尺寸的闪烁体位于卫星的顶部(Z+)一侧,而对于CAMELOT来说,它位于卫星的两侧。由于CubeSat标准不允许在侧面有足够的横向延伸,所以外壳必须沉入卫星中,这样它可能会干扰标准的PC/104堆叠。在这里,我们提出了一个解决方案,如何整合闪烁体外壳,独特设计的电子和商用卫星子系统。
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