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Cost-Efficient Strategy for High Renewable Energy Penetration in Isolated Power Systems

机译:隔离电力系统中高可再生能源渗透的成本高效策略

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摘要

Remote areas and islands isolated from the main electric power system ensure reliability and stability of power supply using diesel generation. Due to the high purchase and transportation costs of diesel fuel, isolated communities are exploring other options for efficient and reliable power supply. Renewable energy sources can reduce operating costs, although are unable to achieve high penetration without expensive and complex enabling technologies such as energy storage. Furthermore, the stochastic and intermittent nature of renewable sources (i.e., wind and solar) makes the control system complex, decreasing power system reliability and requiring highly qualified personnel in local control centres. The problem becomes particularly acute when diesel engines are forced to operate at partial load, resulting in poor combustion efficiency and potential engine damage. This paper suggests a fuel-efficient control strategy, adopting low load diesel application to reduce fuel consumption and improve renewable energy penetration without overcomplicating the control architecture. A mathematical model is initially developed, then validated against real data, to facilitate comparative assessment of various control approaches. Optimised control methodologies are shown to deliver fuel savings of 16.7%, with a 14% increase in renewable energy penetration, in comparison to conventional management.
机译:从主电力系统隔离的偏远地区和岛屿确保使用柴油发电的电源的可靠性和稳定性。由于柴油燃料的高购买和运输成本,孤立的社区正在探索有效且可靠的电源的其他选择。可再生能源可以减少运营成本,尽管无法在没有昂贵和复杂的能量存储等昂贵和复杂的技术的情况下实现高渗透性。此外,可再生源(即风和太阳能)的随机和间歇性质使得控制系统复杂,电力系统可靠性降低,需要在本地控制中心中的高素质人员。当柴油发动机被压被在部分负载下运行时,问题变得特别严重,导致燃烧效率差和潜在的发动机损坏。本文建议采用低负荷柴油应用,以降低燃料消耗,提高可再生能源渗透,而不会超越控制架构。最初开发了数学模型,然后针对真实数据验证,以方便对各种控制方法的比较评估。与常规管理相比,优化的控制方法显示提供燃料节省16.7%,可再生能源渗透率增加14%。

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