分布式监控网络动力试验台

V. Krishnan, S. Gopal, Z. Nie, A. Srivastava
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引用次数: 1

摘要

随着自动化程度的提高、DERs的增加、主动配电系统的增加以及对弹性的推动,电网变得越来越复杂,多域和多物理场相互作用。对于这样一个复杂的系统,集中控制将是缓慢的,不可扩展的,并且容易出现故障。这种系统的本地控制器将是非最优的、硬编码的、不容错的。这种系统的首选控制体系结构将是分布式体系结构,因为它相对快速、可扩展和健壮。分布式架构支持电网监测和控制,以增强弹性和可靠性,但在现场实施之前需要进行测试和验证。本文提出了一种网络电力试验台体系结构,用于验证分布式电网应用。以该试验台为例,对分布式补救行动方案(DRAS)算法进行了验证。DRAS是通过一种名为智能电网弹性信息架构平台(RIAPS)的分布式计算平台实现的。开发的网络动力测试平台采用实时数字模拟器,相量测量单元和CISCO FOG路由器与RIAPS平台。通过IEEE 14总线分布式控制测试系统在各种网络故障下的在线仿真验证了该试验台的有效性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Cyber-power testbed for distributed monitoring and control
The power grid Is becoming Increasingly complex with multi-domain and multi-physics interaction given enhanced automation, increasing DERs, active distribution system and push for resiliency. The centralized control for such a complex system will be slow, non-scalable and prone to failures. The local controllers for such system will be non-optimal, hard coded and not fault-tolerant. The preferred control architecture for such system will be distributed architecture as it is relatively fast, scalable and robust. The distributed architecture supports the power grid monitoring and control for enhanced resiliency and reliability, but need to be tested and validated before field implementation. This paper presents a cyber-power testbed architecture to validate distributed applications in the power grid. Distributed Remedial Action Scheme (DRAS) algorithm is validated using the testbed as an example distributed control testcase. DRAS has been implemented using a distributed computing platform called Resilient Information Architecture Platform for Smart Grid (RIAPS). Developed cyber-power testbed utilizes Real Time Digital Simulator, Phasor Measurement Units and CISCO FOG routers with RIAPS platform. The testbed is validated through online simulations of IEEE 14-bus test system with distributed control under various cyber failures for satisfactory response.
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