基于ATCA/ xtca的核聚变快速控制系统控制和数据采集硬件

M. Correia, J. Sousa, A. Rodrigues, A. Batista, B. Gonçalves, C. Varandas, C. Correia
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引用次数: 19

摘要

在当代核聚变装置的控制和数据采集系统中,对高信道密度和实时多输入多输出(MIMO)支持的快速增长需求催生了基于先进电信计算体系结构(ATCA)规范的新一代硬件体系结构。此外,ATCA还成功提供了其他敏感问题的解决方案,如元件面积、功耗和冗余,符合此类系统对高复杂性和安全性的要求。然而,经验表明,由于前面提到的复杂性,这种硬件设备的开发可能需要很长时间。此外,ATCA规范到目前为止在仪器应用方面还没有定义,在等离子体物理应用设备的特性方面更是如此。目前正在为此目的开发名为“xTCA”的规范。基于ATCA本身,它将定义新的功能,以标准化和促进融合控制工厂环境中设备操作的硬件开发-最值得注意的是,后过渡模块(RTM)上的专用定时和输入输出(IO)端口分配。本文介绍的原型是xTCA PCIe (Peripheral Component Interface)交换机AMC (Advanced Mezzanine Card)载体刀片。该设备作为一个集线器,通过其专有的双星拓扑结构通道,控制和处理来自同一xTCA架子内的父节点的I/O数据。正在开发的父节点刀片通过xTCA的不可知结构在全网格拓扑中同样连接,以便从所有I/O端点获得系统MIMO功能。交换刀片携带多达四个AMC模块,增加了模块化和多功能性。这允许更独立和更快的硬件开发,因为专用的AMC模块,如数据处理和存储设备,可以同时投影。商用现货(COTS) AMC产品很容易获得,也可以立即集成到系统中。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
ATCA/xTCA-based hardware for control and data acquisition on Nuclear Fusion fast control plant systems
In contemporary control and data acquisition systems for Nuclear Fusion devices, the galloping need for high channel density and real-time multi-input-multi-output (MIMO) support gave rise to a new generation of hardware architecture based on the Advanced Telecommunications Computing Architecture (ATCA) specification. In addition, ATCA successfully delivered solutions in other sensitive issues such as form-factor component area, power dissipation and redundancy, complying with the high complexity and security required for such systems. Experience has showed, however, that due to its aforementioned complexity, such hardware devices can yield to a lengthy development. Furthermore, the ATCA specification is, as yet, somewhat undefined for instrumentation applications, more so within the specificities of Plasma Physics applied devices. The entitled “xTCA” specification is currently being developed for those purposes. Based on the ATCA itself, it will define new functionalities that standardize and facilitate hardware development for device operation in a Fusion control plant environment - most notably, dedicated timing and input-output (IO) port assignment on the Rear Transition Module (RTM). The prototype hereby presented is an xTCA Peripheral Component Interface (PCIe) switch Advanced Mezzanine Card (AMC) carrier blade. The device serves as a hub, as to control and handle I/O data from its parent nodes existing within the same xTCA shelf through its proprietary fabric channels in dual-star topology. Parent node blades, under development, are equally linked through xTCA's agnostic fabric in full-mesh topology, as to attain system MIMO functionality from all I/O endpoints. The switch blade carries up to four AMC modules, adding up to modularity and versatility. This allows for a much more independent and speedier hardware development, as dedicated AMC modules, such as data processing and storage devices, can be simultaneously projected. Commercial off-the-shelf (COTS) AMC products are readily available and may also be immediately integrated in the system.
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