Scalable Protection and Self-Healing of Microgrids: Hardware In The Loop Co-Simulation

P. Gadde, S. Brahma, Trupal Patel
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引用次数: 2

Abstract

The design of a reliable protection scheme for micro-grids often requires communication between protective devices and microgrid controllers. These communication assisted schemes must be validated in real time with cyber physical co-simulation for successful demonstration. The paper presents such a co-simulation platform between a simulated power system model using RTDS and physical protective devices. The authors have developed a scalable protection scheme with a self healing feature to protect a microgrid with 100% Inverter Based Resources (IBRs). The primary protection of the scheme is programmed in SEL 421–7 relay and backup protection is programmed in MATLAB on a generic computer acting as a microgrid controller. IEC 61850 models are used to communicate between SEL-421 relay and RTDS, TCP/IP communication connects the microgrid controller to RTDS. The paper's focus is to demonstrate the co-simulation platform with real communication links established using both communication protocols. The paper shows the configuration of the IEC 61850 and TCP/IP communications as the interface requires proper hardware and software setup. The real time performance on IEEE 123 node distribution feeder indicates the Hardware In the Loop (HIL) framework as a competent testing environment for the developed protection scheme for microgrids.
微电网的可扩展保护和自修复:硬件在环联合仿真
设计可靠的微电网保护方案往往需要保护装置与微电网控制器之间的通信。为了成功演示,这些通信辅助方案必须通过网络物理联合仿真进行实时验证。本文提出了一种基于RTDS的电力系统仿真模型与物理保护装置的联合仿真平台。作者开发了一种具有自我修复功能的可扩展保护方案,以保护具有100%逆变器资源(IBRs)的微电网。该方案的主保护用SEL 421-7继电器编程,备用保护在作为微电网控制器的通用计算机上用MATLAB编程。IEC 61850型号用于SEL-421继电器和RTDS之间的通信,TCP/IP通信将微电网控制器连接到RTDS。本文的重点是演示两种通信协议建立的具有真实通信链路的联合仿真平台。本文说明了配置iec61850和TCP/IP通信作为接口需要适当的硬件和软件设置。在IEEE 123节点配电馈线上的实时性能表明,硬件在环(HIL)框架可用于开发的微电网保护方案的测试环境。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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