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The excitation controller with gain scheduling mechanism for synchronous generator control

机译:具有增益调度机制的励磁控制器,用于同步发电机控制

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The power systems, including the synchronous generators and power systems networks, are complex nonlinear systems with configuration and parameters which change through time. That leads to electromechanical oscillations occurring in that system. Thus synchronous generator excitation controller must be capable of providing appropriate stabilization signal over broad range of operating conditions and disturbances. In this paper, an excitation controller (EC) with gain scheduling mechanism is proposed to deal with those phenomena. This controller is designed and implemented based on the gain scheduling approach according to the power system stabilizer (PSS) and the conventional PID controller in the case of automatic voltage regulator (AVR). The proposed PSS accommodate the nonlinear nature of power systems and adopt with parametric gain surfaces its parameters to the actual operating conditions. It is parameterized with two stages tuned procedure based on the nonlinear optimization problem solving according to the linearized power system model. The obtained result shows that the proposed excitation controller with gain scheduling mechanism can provide effective electromechanical oscillation damping and lower control signal effort in comparison with the a classic excitation system through wide range of operating conditions.
机译:电力系统,包括同步发电机和电力系统网络,是复杂的非线性系统,其配置和参数会随时间变化。这导致该系统中发生机电振荡。因此,同步发电机励磁控制器必须能够在较宽的运行条件和干扰范围内提供适当的稳定信号。针对这种现象,提出了一种具有增益调度机制的激励控制器。在自动电压调节器(AVR)的情况下,该控制器是根据增益调度方法根据电力系统稳定器(PSS)和常规PID控制器设计和实现的。拟议的PSS适应了电力系统的非线性特性,并采用参数增益面将其参数应用于实际工作条件。根据线性优化电力系统模型,在基于非线性优化问题求解的基础上,通过两阶段调整过程对其进行参数化。所得结果表明,与传统的励磁系统相比,所提出的具有增益调度机制的励磁控制器在宽范围的工作条件下均能提供有效的机电振荡阻尼和较低的控制信号作用。

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