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A new real-time multi-agent system for under frequency load shedding in a smart grid context

机译:智能电网上下文中的频率负载脱落下的新型实时多代理系统

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Automatic under frequency load shedding schemes need to be carefully designed in order to reduce the risk of widespread system collapse. This paper proposes a centralized hierarchical multi-agent system that coordinates various stages of monitoring and decision making processes. The main contribution is to improve traditional contingency response algorithms such as load shedding schemes, taking advantage of the future smart grid infrastructure. The multi-agent system seeks for a minimum amount of load disconnection in a short period of time, causing the least possible disturbance in the system frequency. A hardware-in-the-loop simulation of a full electric power system using a real time digital simulator was utilized. The solution was embedded in a real time system, consisting of hardware and software, to test and validate the proposed methodology. In addition, the studied methodology was compared with two other load shedding philosophies through a load shedding metric score. Shedding was carried out in a single step and the amount of disconnected load was close to the dynamic power unbalance. The results show that it is possible to improve the traditional load shedding philosophy schemes and use advanced communication infrastructure, monitoring and embedded processing capabilities to provide better stability and reduce unnecessary load disconnections from the system.
机译:在频率负载脱落方案下,需要精心设计,以降低广泛系统崩溃的风险。本文提出了一种集中分层多代理系统,可协调监测和决策过程的各个阶段。主要贡献是改善传统的应急响应算法,如加载脱落方案,利用未来的智能电网基础架构。多种代理系统在短时间内寻求最小的负载断开,从而导致系统频率的最小干扰。利用了使用实时数字模拟器的全电力系统的硬件仿真。解决方案嵌入在实时系统中,由硬件和软件组成,测试和验证所提出的方法。此外,通过负载脱落度量分数将研究的方法与另外两种负载脱落哲学进行比较。脱落在单一的步骤中进行,并且断开的负载量接近动态功率不平衡。结果表明,可以改善传统的负载脱落理念方案,并使用先进的通信基础设施,监控和嵌入式处理能力,以提供更好的稳定性,并减少来自系统的不必要的负载断开连接。

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