Evaluating UWB for Wireless Clock Synchronization of an IEC 61850 Stand Alone Merging Unit

S. Rinaldi, A. Depari, P. Ferrari, A. Flammini, Elia Mondini, Alessandro Musatti, M. Pasetti, E. Sisinni
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Abstract

In recent years, electricity grids have undergone radical transformations in order to manage the increasing presence of Distributed Energy Resources (DER) as well as the increasing demand for electricity due to electric vehicle charging systems. The IEC 61850 standard, which introduced digital control architectures based on communication networks, marked a significant milestone in the management of primary substations and the entire electrical network in general. The Stand Alone Merging Units (SAMUs) are the elements that connect the analog sensors installed on the electrical network to the digital control systems of substations. The digitalization performed by SAMUs enables the virtualization of measurement and control functions, which are typically operated by dedicated components. The accuracy of information obtained from a distributed system, such as SAMUs, depends on the system’s ability to synchronize with an external source of time. Typically, SAMUs are synchronized via Global Positioning System (GPS) or networked solution, such as IEEE 1588. A novel wireless clock distribution method based on Ultra Wide Band (UWB) technology is presented and evaluated in this research. The experimental characterization highlights as the proposed approach is a feasible solution for clock synchronization of SAMUs: the phase error of clocks generated by two SAMUs synchronized via UWB is 17.5 ns.
iec61850独立合并单元UWB无线时钟同步评估
近年来,为了管理分布式能源(DER)日益增加的存在以及由于电动汽车充电系统而增加的电力需求,电网经历了根本性的变革。IEC 61850标准引入了基于通信网络的数字控制体系结构,标志着初级变电站和整个电网管理的一个重要里程碑。独立合并单元(samu)是将安装在电网上的模拟传感器连接到变电站的数字控制系统的元件。samu执行的数字化实现了测量和控制功能的虚拟化,这些功能通常由专用组件操作。从分布式系统(如samu)获得的信息的准确性取决于系统与外部时间源同步的能力。通常,samu通过全球定位系统(GPS)或网络解决方案(如IEEE 1588)进行同步。提出了一种基于超宽带(UWB)技术的无线时钟分配方法,并对其进行了研究。实验表征的重点在于,该方法是一种可行的samu时钟同步解决方案:通过UWB同步的两个samu产生的时钟相位误差为17.5 ns。
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