提高DFIG风力发电机组暂态稳定性的有功功率控制

IF 3.3 Q3 ENERGY & FUELS IEEE Open Access Journal of Power and Energy Pub Date : 2023-01-01 DOI:10.1109/OAJPE.2022.3194865
Stavros Konstantinopoulos;Joe H. Chow
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引用次数: 1

摘要

为了提高同步发电机的暂态稳定性,本文提出了一种3型风力发电机组的自适应动态功率削减(aDPR)方案,该方案可以提高已满负荷输电路径上的传输限制。该方案由三个部分组成,用于处理靠近SG的故障。最初,WTG将其有功功率限制到预定义的水平,作为SG的动态制动。然后,控制器监测频率变化率,自适应地将WTG恢复到其原始功率输出,同时最小化WTG的俯仰和转子运动。最后,为了降低二次摆动不稳定的风险,变流器使用其无功电流来抑制SG功率摆动。aDPR方案可以归类为一种补救措施方案,如果其行动能够确保暂态稳定,则使能aDPR方案。为了证明aDPR的有效性,并将其与其他WTG有源电流和频率反馈控制技术进行基准测试,使用了具有一个WTG的单机无限总线系统。接下来,将aDPR支持的WTG集成到npc 68总线系统中。最后,在双区系统上验证了aDPR控制器防止暂态失稳的能力。
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Active Power Control of DFIG Wind Turbines for Transient Stability Enhancement
This paper proposes an adaptive Dynamic Power Reduction (aDPR) scheme for Type-3 Wind Turbine-Generators (WTGs) to enhance transient stability of synchronous generators (SGs), with benefits of increasing transfer limits on already fully loaded transmission paths. The scheme consists of three components to deal with a fault close to a SG. Initially, the WTG curtails its active power to a predefined level to act as a dynamic brake for the SG. Then the controller monitors the rate of change of frequency to adaptively ramp the WTG back to its original power output while minimizing the WTG pitch and rotor motion. Finally, to reduce the risk of second-swing instability, the converter uses its reactive current to damp SG power swings. The aDPR scheme can be classified as a remedial action scheme and is enabled if its action can ensure transient stability. To demonstrate the effectiveness of aDPR and to benchmark it against other WTG active current and frequency feedback control techniques, a single-machine infinite-bus system with one WTG is utilized. Next, an aDPR enabled WTG is integrated in the NPCC 68-bus system. Finally, the aDPR controller’s ability to prevent transient instability is demonstrated on the two-area system.
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来源期刊
CiteScore
7.80
自引率
5.30%
发文量
45
审稿时长
10 weeks
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