Correction: Development of a Generic Guidance Navigation & Control System for Small Satellites: Application to HuskySat-1

Taylor P. Reynolds, Krish Kaycee, Bijan Barzgaran, Mathias Hudoba de Badyn, Sean Rice, Emma Hansen, A. Adler, Behçet Açikmese, M. Mesbahi
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引用次数: 1

Abstract

This paper presents the development of a generic Guidance, Navigation & Control (GNC) system for small satellites at the University of Washington that serves as a testbed for algorithm development and supports small satellite mission design. Our ultimate aim is to advance the capabilities of autonomous satellite operations by demonstrating advanced on-board control and estimation techniques, though the work is equally applicable to earth-imaging, pointing and technology demonstration missions. The work discusses the development of flight software and requisite sensor, actuator and environmental models needed to validate flight software functionality. The first mission application is the HuskySat-1 mission, undertaken by a student-led group at the University of Washington. Primarily a technology demonstration, HuskySat-1 is a 3U CubeSat equipped with a pulsed plasma thruster and a high-frequency communication antenna, equipped with a 3-axis active attitude control subsystem. We demonstrate through software and hardware-based testing that our system supports both scientific payloads. We outline our approach to algorithm development, verification and validation, and briefly hardware-in-the-loop testing.
修正:小型卫星通用制导导航控制系统的开发:在HuskySat-1上的应用
本文介绍了华盛顿大学用于小卫星的通用制导、导航和控制(GNC)系统的开发,该系统可作为算法开发和支持小卫星任务设计的试验台。我们的最终目标是通过展示先进的机载控制和估计技术来提高自主卫星操作的能力,尽管这项工作同样适用于地球成像、指向和技术演示任务。该工作讨论了飞行软件的开发以及验证飞行软件功能所需的必要传感器、执行器和环境模型。第一个任务申请是HuskySat-1任务,由华盛顿大学的一个学生领导的小组承担。HuskySat-1是一颗3U立方体卫星,主要用于技术演示,配备脉冲等离子体推进器和高频通信天线,配备3轴主动姿态控制子系统。我们通过基于软件和硬件的测试证明,我们的系统支持两种科学有效载荷。我们概述了算法开发、验证和验证的方法,并简要介绍了硬件在环测试。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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