IP网络并行冗余协议

M. Popovic, Maaz M. Mohiuddin, Dan-Cristian Tomozei, J. Boudec
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引用次数: 20

摘要

在严格的延迟约束下,可靠的数据包传输对于具有硬实时约束的工业过程至关重要,例如电网监控。由于重传和编码技术抵消了延迟需求,因此通过在多个故障无关路径上进行复制来实现可靠性。现有的解决方案,如并行冗余协议(PRP),通过并行路径复制MAC层的所有数据包。PRP在局域网络中效果最好,例如,分站网络。然而,对于作为新兴智能电网组成部分的IP层广域网来说,这种方法并不可行。这种可扩展性的限制,加上缺乏安全性和诊断能力,使得它不适合在智能电网中可靠地传输数据。为了解决这个问题,我们提出了一种传输层设计:IP并行冗余协议(iPRP)。设计iPRP在选择性分组复制、软状态和组播支持方面提出了不小的挑战。除了单播外,iPRP还支持多播,这在智能电网中得到了广泛的应用。它只复制时间紧迫的UDP流量。iPRP只需要在终端设备上安装一个简单的软件。不需要对现有的监控应用程序、终端设备操作系统或中间网络设备进行其他修改。iPRP有一套用于网络调试的诊断工具。通过在Linux中实现iPRP,我们展示了iPRP以最小的处理和延迟开销支持多个流。它正在我们的校园智能电网中安装,并且是公开的。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
iPRP: Parallel redundancy protocol for IP networks
Reliable packet delivery within stringent delay constraints is of primal importance to industrial processes with hard real-time constraints, such as electrical grid monitoring. Because retransmission and coding techniques counteract the delay requirements, reliability is achieved through replication over multiple fail-independent paths. Existing solutions such as parallel redundancy protocol (PRP) replicate all packets at the MAC layer over parallel paths. PRP works best in local area networks, e.g., sub-station networks. However, it is not viable for IP layer wide area networks which are a part of emerging smart grids. Such a limitation on scalability, coupled with lack of security, and diagnostic inability, renders it unsuitable for reliable data delivery in smart grids. To address this issue, we present a transport-layer design: IP parallel redundancy protocol (iPRP). Designing iPRP poses non-trivial challenges in the form of selective packet replication, soft-state and multicast support. Besides unicast, iPRP supports multicast, which is widely using in smart grid networks. It duplicates only time-critical UDP traffic. iPRP only requires a simple software installation on the end-devices. No other modification to the existing monitoring application, end-device operating system or intermediate network devices is needed. iPRP has a set of diagnostic tools for network debugging. With our implementation of iPRP in Linux, we show that iPRP supports multiple flows with minimal processing and delay overhead. It is being installed in our campus smart grid network and is publicly available.
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