面向电气故障注入与恢复仿真环境的ICT网关

P. Gupta, Pekka T. Savolainen, Markus Duchon
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引用次数: 0

摘要

由于智能电网技术的进步,微电网的能源管理系统(EMS)环境需要智能机制。EMS的功能之一是确保电网的稳定性。为了测试和验证新机制,存在适当的仿真工具。现有的验证策略大多是先在仿真环境中对目标系统进行建模,然后将机制部署到实际环境中。当经过验证的机制在实际环境中实现时,由于EMS控制器中的实现差异,它们通常不能按预期工作,需要进行修改。EMS应该能够与仿真模型通信,在仿真模型中注入故障,并能够执行各种控制动作。在本文中,我们提出了一种软件在环的方法,其中电网稳定机制在EMS中实现,并在实际环境中部署。EMS必须完全按照它在仿真环境中的方式运行。对于这种功能,仿真平台应该能够与EMS通信。在这项工作中,我们考虑一个13节点的径向配电网,其中一个太阳能电池板作为发电单元。利用Apros仿真软件对13节点配电网进行了建模。在Apros模型中,微电网应用软件SMG2.0用于监测、注入电气故障和触发恢复机制。在Apros和EMS (SMG2.0)之间开发了一种称为ICT网关的通信体系结构。考虑断线和欠压两种故障场景作为故障注入场景,以评估通信体系结构的性能。当SMG2.0检测到线路故障时,触发网络重新配置,作为仿真环境中断线场景的恢复策略。该方法不仅有助于设计电网故障处理策略,而且有助于设计针对物理实体的有效软件应用程序。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
ICT gateway to simulation environment for electrical fault injection and recovery
Due to the advancements in the smart grid technologies, smart mechanisms are required within the Energy Management System (EMS) environments for microgrids. One of the functionalities of EMS is to ensure grid stability. In order to test and validate new mechanisms, appropriate simulation tools exist. Most of the existing validation strategies include modeling the target system in simulation environment and then deploying the mechanism in the real environment. When the validated mechanisms are implemented in real environment, they often do not work as intended and require modification due to the implementation difference within the EMS controller. An EMS should be able to communicate with the simulated model, inject faults in the simulated model and able to perform various control actions. In this paper, we propose a software-in-loop approach, where the grid stability mechanisms are implemented in the EMS, which is deployed in the real environment. EMS must operate exactly the way it does in the simulation environment. For such a capability, the simulation platform should be able to communicate with the EMS. In this work, we consider a 13-node radial distribution grid with one solar panel as a generation unit. The 13-node distribution grid has been modeled using Apros simulation software. SMG2.0, a software application for microgrid is used to monitor, inject electrical faults and trigger recovery mechanisms in the Apros model. A communication architecture called ICT gateway has been developed between Apros and the EMS (SMG2.0). Two fault scenarios (line-breakage and under-voltage) are considered as the fault injection scenarios to evaluate the performance of the communication architecture. When the SMG2.0 detects a line fault, it triggers network reconfiguration as the recovery strategy for the line-breakage scenario in the simulation environment. This approach not only helps in designing fault handling strategies in the electrical network but also helps in designing an effective software application targeted to control the physical entities.
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