Distributed Event-Triggered Control for Islanded Microgrids: Cyber-Physical Design and Implementation

Yu Wang, Yan Xu, Zhengmao Li, T. Nguyen, R. Caire, Q. Tran
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引用次数: 2

Abstract

Microgrid is a complex cyber-physical system with interacted power and communication networks. Conventionally, the secondary control of microgrids relies on a central controller and periodic communications, which may limit the efficiency and resilience of the cyber systems. In this paper, a distributed event-triggered secondary control scheme is proposed for efficient communication in islanded microgrids. The proposed control scheme only takes effect when there are microgrid states change ‘events' (e.g load changes and communication failures). The secondary control including frequency/voltage regulation and accurate real/reactive power sharing are decoupled into two timescales. The triggering conditions for only power sharing control in slower timescale are defined to avoid overlap. The proposed method only requires communications among neighbour controllers at the event-triggered time, which dramatically reduces the communication burden in the cyber system. A cyber-physical microgrid platform has been built with the microgrids in OPAL-RT and communications in Raspberry Pis. The proposed secondary controller has been implemented on this platform and the hardware-in-the-loop (HiL) experiment results demonstrate the performance of our controller design.
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孤岛微电网的分布式事件触发控制:网络物理设计与实现
微电网是一个复杂的信息物理系统,具有相互作用的电力和通信网络。传统上,微电网的二次控制依赖于一个中央控制器和周期性通信,这可能会限制网络系统的效率和弹性。针对孤岛微电网的高效通信问题,提出了一种分布式事件触发二次控制方案。所提出的控制方案仅在微电网状态改变“事件”(例如负载变化和通信故障)时生效。二次控制包括频率/电压调节和精确的实/无功功率共享被解耦为两个时间尺度。定义了在较慢时间尺度下仅功率共享控制的触发条件,以避免重叠。该方法只需要相邻控制器之间在事件触发时刻进行通信,大大减轻了网络系统的通信负担。利用OPAL-RT中的微电网和Raspberry Pis中的通信技术构建了一个网络物理微电网平台。所提出的二级控制器已在该平台上实现,硬件在环(HiL)实验结果验证了所设计控制器的性能。
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