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Smooth transition from wind only to wind diesel mode in an autonomous wind diesel system with a battery-based energy storage system

机译:在具有基于电池的储能系统的自主式风力柴油系统中,从纯风平稳过渡到风力柴油模式

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摘要

High wind penetration wind diesel hybrid systems (WDHS) have three modes of operation: Diesel Only (DO), Wind Diesel (WD) and Wind Only (WO). The WDHS presented in this article consists of a wind turbine generator (WTG), a diesel engine (DE), a synchronous machine (SM), the consumer load, a battery-based energy storage system (BESS), a discrete dump load (DL) and a distributed control system (DCS). The DE can be engaged (DO and WD modes)/disengaged (WO mode) from the SM by means of a clutch. The DCS consists of a sensor node, which measures the SM and DE speeds, calculates the reference active power Pef necessary to balance the active power in the WDHS and communicates this Pref value with a message to the BESS and DL actuator nodes. In the WO mode, the power sources are the WTG and the BESS (temporary) and if there is an active power shortfall, the DCS, to prevent a frequency collapse, must order to start the DE, wait until the DE reaches the SM speed and lock the clutch, changing to the WD mode. With the clutch locked, the combined actuation of the DE + BESS will raise the system frequency to the rated value. This WO to WD transition is simulated in this article showing graphs for frequency, voltage and active powers for the elements of the system. These graphs are compared with the ones obtained if the BESS does not actuate in WD mode. The comparison results show that with the BESS actuation in WD mode the settling time is reduced a 50%, the over and under shooting in the system frequency are eliminated and the system voltage variations are reduced a 40%.
机译:高风速风柴油混合动力系统(WDHS)具有三种运行模式:仅柴油(DO),仅风柴油(WD)和仅风(WO)。本文介绍的WDHS由风力涡轮发电机(WTG),柴油发动机(DE),同步电机(SM),用户负载,基于电池的储能系统(BESS),离散的卸荷( DL)和分布式控制系统(DCS)。 DE可以通过离合器与SM接合(DO和WD模式)/从SM分离(WO模式)。 DCS由一个传感器节点组成,该传感器节点测量SM和DE速度,计算平衡WDHS中的有功功率所需的参考有功功率Pef,并将此Pref值与消息传递给BESS和DL执行器节点。在WO模式下,电源为WTG和BESS(临时),如果有功功率不足,则DCS为防止频率崩溃,必须命令启动DE,等待DE达到SM速度并锁定离合器,切换至WD模式。在离合器锁定的情况下,DE + BESS的组合致动会将系统频率提高到额定值。本文模拟了从WO到WD的过渡,显示了系统元素的频率,电压和有功功率的图表。将这些图与如果BESS在WD模式下未启动时获得的图进行比较。比较结果表明,在WD模式下使用BESS驱动时,建立时间减少了50%,消除了系统频率的过冲和欠冲,并且系统电压变化减少了40%。

著录项

  • 来源
    《Renewable energy》 |2008年第3期|p.454-466|共13页
  • 作者

    R. Sebastian;

  • 作者单位
  • 收录信息 美国《科学引文索引》(SCI);美国《工程索引》(EI);
  • 原文格式 PDF
  • 正文语种 eng
  • 中图分类 能源与动力工程;
  • 关键词

  • 入库时间 2022-08-18 00:27:25

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