Design and Development of the Back-End Electronics for the IXPE Mission

M. Barbanera, S. Citraro, C. Magazzù, A. Manfreda, M. Minuti, H. Nasimi, C. Sgro’
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Abstract

The Imaging X-Ray Polarimetry Explorer IXPE mission will perform polarization measures of 2–8 keV X-rays. Imaging, spectroscopy, and timing will complement this measurement for a comprehensive study of soft X-rays. The launch of the IXPE NASA small explorer mission to a low earth orbit is due late 2021. We designed a subsystem of the scientific payload, which has three identical telescopes based on the detector unit. The Gas Pixel Detector and its back-end electronics are the core of these units, performing data acquisition and processing, event sequencing, and on-line data compression. The back-end electronics processes the auto-triggered output of the detector of 300 photons per second with 30% of dead-time. A radiation-tolerant FPGA implements the electronics custom algorithms, including two digital serial interfaces with a central on-board computer. One interface is used for command and control of the unit, while the other for scientific data transmission. We also designed comprehensive test equipment to emulate the on-board computer and to operate the electronics. This equipment uses an FPGA on a VMEbus board as the electrical interface for the electronics, transferring data to a personal computer with dedicated software infrastructure. In this paper, we shall discuss the design process of the back-end electronics and the results of laboratory tests and measurements with X-ray sources.
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IXPE任务后端电子设备的设计与开发
成像x射线偏振探测器IXPE任务将对2-8 keV x射线进行偏振测量。成像、光谱学和计时将为软x射线的全面研究补充这一测量。美国宇航局将于2021年底发射IXPE低地球轨道小型探测任务。我们设计了一个科学有效载荷的子系统,它有三个基于探测器单元的相同望远镜。气体像素检测器及其后端电子设备是这些单元的核心,执行数据采集和处理、事件排序和在线数据压缩。后端电子设备处理探测器每秒300个光子的自动触发输出,死区时间为30%。一个耐辐射FPGA实现了电子定制算法,包括两个数字串行接口与中央板载计算机。一个接口用于单元的指挥和控制,而另一个接口用于科学数据传输。我们还设计了综合测试设备来模拟车载计算机和操作电子设备。该设备使用VMEbus板上的FPGA作为电子设备的电气接口,将数据传输到具有专用软件基础设施的个人计算机。在本文中,我们将讨论后端电子器件的设计过程以及x射线源的实验室测试和测量结果。
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