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ARINC 653 API and its application – An insight into Avionics System Case Study

机译:ARINC 653 API及其应用–航空电子系统案例研究的真知灼见

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摘要

Traditionally automated systems in aircraft were realised using well defined functions that are implemented as federated functional units. Each functional units possesses its own resources with fault containment compared to multiple functions in single processing node. Integrated architectures are structured over the avionics cabinetsudor processing cabinets which house the hardware modules and software application partitions along with system software. These integrated modular avionics (IMA) applications supports distributed multiprocessor architecture. Bothudtime and memory is shared among multiple avionics functionalities across the same platform with good protection mechanisms provided by ARINC 653. ARINC 653 is an additional layer of protection being embedded as part ofudreal time operating systems supporting the partitioning protections using well defined application executive, andudapplication programming interfaces (API). IMA uses set of partitions, which are scheduled across a major frameudM consisting set of partitions Ptn and each partition having set of task/process τn/Psn. The number of partitions and number of processes in each partition is a trade-off between the real time requirements and the resource. The paper also presents in brief, the API functionalities, its components, implementation, required interfaces, restrictions based on criticality of the avionics application. Error detection, control mechanisms for data integrity and validity for reconfiguration is also addressed. The experimental and simulation studies related to the API utilization as part of case study is addressed with four partitioned case study demonstrating the normal and failure scenario.
机译:传统上,飞机上的自动化系统是使用定义明确的功能实现的,这些功能被实现为联合功能单元。与单个处理节点中的多个功能相比,每个功能单元都拥有自己的具有故障抑制能力的资源。集成架构是在航空电子机柜 udor处理机柜之上构建的,这些机柜包含硬件模块和软件应用程序分区以及系统软件。这些集成的模块化航空电子(IMA)应用程序支持分布式多处理器体系结构。具有ARINC 653提供的良好保护机制的 udtime和内存在同一平台上的多个航空电子功能之间共享。ARINC653是嵌入的附加保护层,作为 udreal实时操作系统的一部分,使用定义良好的应用程序来支持分区保护。执行和应用程序编程接口(API)。 IMA使用分区集,该分区集是在包含分区集Ptn的主帧 udM上调度的,每个分区都具有任务/过程τn/ Psn集。分区数和每个分区中的进程数是实时需求和资源之间的权衡。本文还简要介绍了API功能,其组件,实现,所需的接口以及基于航空电子应用程序的关键性的限制。还讨论了错误检测,数据完整性的控制机制以及重新配置的有效性。作为案例研究的一部分,与API使用相关的实验和仿真研究通过四个分区的案例研究进行了展示,展示了正常情况和失败情况。

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