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An Ultraviolet imager to study bright UV sources

机译:紫外成像仪学习明亮的紫外源

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We have designed and developed a compact ultraviolet imaging payload to fly on a range of possible platforms such as high altitude balloon experiments, cubesats, space missions, etc. The primary science goals are to study the bright UV sources (mag < 10) and also to look for transients in the Near UV (200 - 300 nm) domain. Our first choice is to place this instrument on a spacecraft going to the Moon as part of the Indian entry into Google lunar X-Prize competition. The major constraints for the instrument are, it should be lightweight (< 2Kg), compact (length < 50cm) and cost effective. The instrument is an 80 mm diameter Cassegrain telescope with a field of view of around half a degree designated for UV imaging. In this paper we will discuss about the various science cases that can be performed by having observations with the instrument on different platforms. We will also describe the design, development and the current state of implementation of the instrument. This includes opto-mechanical and electrical design of the instrument. We have adopted an all spherical optical design which would make the system less complex to realize and a cost effective solution compared to other telescope configuration. The structural design has been chosen in such a way that it will ensure that the instrument could withstand all the launch load vibrations. An FPGA based electronics board is used for the data acquisition, processing and CCD control. We will also briefly discuss about the hardware implementation of the detector interface and algorithms for the detector readout and data processing.
机译:我们设计并开发了紧凑的紫外线成像有效载荷,可在一系列可能的平台上飞行,如高海拔气球实验,立方体,空间任务等。主要科学目标是研究明亮的紫外源(MAG <10)以及寻找近UV(200 - 300nm)域中的瞬态。我们的首选是将这乐器放在一个航天器上,作为印度进入谷歌的农历X奖竞赛的一部分。仪器的主要限制是,它应该是轻量级(<2kg),紧凑(长度<50厘米)和成本效益。该仪器是一个80毫米直径的Cassegrain望远镜,其视野约为UV成像的大约一半。在本文中,我们将讨论各种科学案例,可以通过在不同平台上与仪器进行观察来执行。我们还将描述仪器的设计,开发和当前的实施状态。这包括仪器的光机械和电气设计。我们采用了一种全球形光学设计,这将使系统更加复杂,以实现与其他望远镜配置相比的成本效益的解决方案。已经选择了结构设计,使其能够确保仪器可以承受所有发射负载振动。基于FPGA的电子板用于数据采集,处理和CCD控制。我们还将简要讨论检测器接口的硬件实现和检测器读数和数据处理的算法。

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