COTS based high data throughput acquisition system for a real-time reflectometry diagnostic

J. Santos, M. Zilker, W. Treutterer, C. Amador, L. Guimarais, M. Manso
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引用次数: 16

Abstract

Achieving higher levels of plasma performance control in present fusion experiments requires that diagnostics be upgraded to deliver processed physical parameters in real-time (RT). A key element in a diagnostic RT upgrade is the data acquisition system (DAS), that should be capable of delivering the acquired data to the data processing resources with very low latencies and in the shortest possible time. Adequate standard commercial solutions with these characteristics are not easily found in the market, what leads most of the times to the development of complex custom high-performance designs from ground-up. A mixed solution, partially based on commercial off-the-shelf (COTS) components, is under development to upgrade the existing ASDEX Upgrade (AUG) broadband reflectometry diagnostic so that a full demonstration of plasma position control using RT reflectometry density profile measurements can be performed. The 8-channel (12-bit/100 MSPS) DAS being designed features a PCI Express (PCIe) x8 interface to enable direct memory access (DMA) data transfers with throughputs in excess of 1 GB/s. The use of COTS components resulted in a faster hardware design cycle without compromising system performance and flexibility. The architecture of the system and its main design constraints as well as the system integration in the AUG RT diagnostic network are herein discussed. Preliminary benchmark results for data throughput and overall measurement latency are also presented.
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基于COTS的高数据吞吐量实时反射诊断采集系统
在目前的聚变实验中,要实现更高水平的等离子体性能控制,需要升级诊断,以实时(RT)提供处理后的物理参数。诊断RT升级中的一个关键元素是数据采集系统(DAS),它应该能够以极低的延迟和尽可能短的时间将采集的数据交付给数据处理资源。在市场上很难找到具有这些特性的适当的标准商业解决方案,这导致大多数时候从头开始开发复杂的定制高性能设计。一种混合解决方案,部分基于商用现货(COTS)组件,正在开发中,以升级现有的ASDEX upgrade (AUG)宽带反射仪诊断,以便使用RT反射仪密度剖面测量进行等离子体位置控制的完整演示。正在设计的8通道(12位/100 MSPS) DAS具有PCI Express (PCIe) x8接口,可实现吞吐量超过1gb /s的直接内存访问(DMA)数据传输。使用COTS组件可以在不影响系统性能和灵活性的情况下缩短硬件设计周期。讨论了该系统的体系结构及其主要设计约束,以及在AUG RT诊断网络中的系统集成。还给出了数据吞吐量和总体测量延迟的初步基准测试结果。
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