Robustness Testing of Satellite Attitude and Orbit Control Systems: A Proposal Guided by Two Model Based Testing Methodologies

Andre Corsetti, A. Ambrosio, M. F. Mattiello-Francisco
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Abstract

Attitude and Orbit Control System (AOCS) is one subsystem of the Service Module of a satellite which mostly endures faults in space operations. The criticality and complex nature of the subsystem demands an extensive effort in its integration and controller`s software testing, mainly for validating the Fault Detection, Identification and Recovery (FDIR) requirements. This paper presents a proposal of characterization of the mechanisms of FDIR in order to apply model-based testing methodologies to address the AOCS robustness aspect. Two testing methodologies named CoFI and InRob using respectively Finite State Machine and Timed Input Output Automata formalisms to model critical services will be used, highlighting the robustness properties of the services. The testing methodologies support integration testing and acceptance phase of AOCS software. This paper aims in describing the selection of the two test methodologies and presenting the approach for modelling FDIR. Every satellite, except the very simple ones, have an inertial control system to control its attitude and/or orbit, being this system a subsystem of the Service Module of the satellite. The Service Module is a platform of services common to satellites, necessary to sustain its operations.
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卫星姿态轨道控制系统鲁棒性测试:基于两种模型测试方法的建议
姿态与轨道控制系统(AOCS)是卫星业务模块中最易发生空间运行故障的子系统之一。子系统的重要性和复杂性要求在其集成和控制器软件测试方面进行广泛的努力,主要是为了验证故障检测,识别和恢复(FDIR)要求。本文提出了表征FDIR机制的建议,以便应用基于模型的测试方法来解决AOCS健壮性方面的问题。将使用两种名为CoFI和InRob的测试方法,分别使用有限状态机和定时输入输出自动机形式对关键服务进行建模,突出了服务的鲁棒性。测试方法支持AOCS软件的集成测试和验收阶段。本文旨在描述两种测试方法的选择,并提出建模FDIR的方法。除了非常简单的卫星外,每个卫星都有一个惯性控制系统来控制其姿态和/或轨道,该系统是卫星服务舱的一个子系统。服务舱是卫星共用的服务平台,是维持卫星运行所必需的。
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