Life cycle experiences with micro-processor based relays and roadmap to sustainability

V. Madani, Yujie Yin, Yong Fu, S. Chidurala, Xiangmin Gao, J. Sykes
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引用次数: 2

Abstract

Microprocessor based protective relays have been widely used to provide many benefits including system performance, monitoring, technology and compliance. Recently utilities have started to replace earlier generation of microprocessor-based protective devices with modern protection and control Intelligent Electronic Devices (IEDs). The upgrade is partially due to increased failure rates of the earlier generation of devices, as well as to benefit from the new functionalities including system integration, Synchrophasor applications, IEC61850 communication and cyber security. The process to upgrade numerical relays is quite different and is more complex than upgrading of traditional electromechanical or solid-state relays with a functionally equivalent device. In addition to the hardware replacement, functions related to cyber security, protection, automation and control, event recording and digital communications must be considered. The protection and control system practitioners need to manage the asset and set the strategies, with inputs from other stakeholders across lines of business as well as externally with manufacturers, regulators, consultants or even neighboring utilities because the selection and application criteria have expanded with the introduction of new features and functions. This paper discusses the existing asset management, performance, replacement, and technology considerations based on utility practices at the T&D level. Strategies and practical concerns including hardware and firmware compatibility, protection settings, or other features such as automation or other possible functions integrated and associated set point considerations, as well as commissioning and testing when upgrading or replacing a microprocessor device are described in detail. This paper will assist utility or industry electrical engineers that have an on-going relay upgrade project or are planning to upgrade their aging microprocessor relays in lessons learned from some major power companies in North America.
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具有基于微处理器的继电器的生命周期经验和可持续发展路线图
基于微处理器的保护继电器已被广泛应用,提供了许多好处,包括系统性能,监控,技术和合规性。最近,公用事业公司已经开始用现代保护和控制智能电子设备(ied)取代上一代基于微处理器的保护设备。升级的部分原因是由于早期设备的故障率增加,以及受益于新功能,包括系统集成,同步相量应用,IEC61850通信和网络安全。数字继电器的升级过程与传统的机电继电器或固态继电器的升级过程有很大的不同,而且更复杂。除了硬件更换外,还必须考虑与网络安全、保护、自动化和控制、事件记录和数字通信相关的功能。由于选择和应用标准随着新特性和功能的引入而扩展,保护和控制系统从业者需要管理资产并设置策略,同时还要考虑来自跨业务线的其他利益相关者以及外部制造商、监管机构、顾问甚至邻近公用事业公司的输入。本文讨论了现有的资产管理、性能、替换,以及基于输配电层面的实用实践的技术考虑。策略和实际问题,包括硬件和固件兼容性,保护设置,或其他功能,如自动化或其他可能的功能集成和相关的设定点考虑,以及升级或更换微处理器设备时的调试和测试进行了详细描述。本文将从北美一些主要电力公司的经验教训中,为正在进行继电器升级项目或计划升级其老化的微处理器继电器的公用事业或工业电气工程师提供帮助。
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