Design and Real-life Deployment of a Smart Nanogrid: A Greek Case Study

A. Tsolakis, A. Bintoudi, L. Zyglakis, S. Zikos, C. Timplalexis, N. Bezas, Konstantinos Kitsikoudis, D. Ioannidis, D. Tzovaras
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引用次数: 5

Abstract

Microgrids are becoming one of the most promising building blocks for smart grids gaining an increasing attention in the last decade. From critical infrastructures such as hospitals, military bases, desolated or hard to reach areas to universities, research centers, and other industrial infrastructures, basic microgrid principles have been applied presenting enhanced reliability and added value business services to their operation. Recently, such application principles have been further scaled-down, presenting an even more challenging paradigm at single building infrastructure, the nanogrid. Nevertheless, even in such occasions, optimal operation is restricted by the commercial product services, that aren’t always easy to configure or extend towards enabling additional functionalities. This manuscript presents step by step the transformation of a smart home infrastructure into a flexible yet safe nanogrid that allows various control strategies in real-life operation while respecting the fail-safe mechanisms of the deployed commercial assets while introducing additional safety measures. After two years of operation and configuration, by only optimising the energy storage system and evaluating overall performance for almost half a year, promising results demonstrate the untapped potential of such deployments.
智能纳米电网的设计和现实部署:希腊案例研究
微电网正在成为智能电网最有前途的组成部分之一,在过去十年中受到越来越多的关注。从医院、军事基地、荒凉或难以到达的地区等关键基础设施到大学、研究中心和其他工业基础设施,微电网的基本原理得到了应用,为其运行提供了更高的可靠性和增值业务服务。最近,这样的应用原则已经进一步缩小了规模,在单个建筑基础设施中呈现出更具挑战性的范例,即纳米网格。然而,即使在这种情况下,最佳操作也受到商业产品服务的限制,这些服务并不总是容易配置或扩展以启用其他功能。本文一步一步地介绍了智能家居基础设施向灵活而安全的纳米电网的转变,该纳米电网允许在实际操作中采用各种控制策略,同时尊重部署的商业资产的故障安全机制,同时引入额外的安全措施。经过两年的运行和配置,仅对储能系统进行了优化,并对整体性能进行了近半年的评估,结果表明,这种部署的潜力尚未开发。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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