Constant energy control by time-varying gain for steady-state oscillation of thermoacoustic engines to estimate critical temperature ratio

Y. Kobayashi, Kazuaki Sakurai, N. Yamada
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引用次数: 2

Abstract

In order to estimate the critical temperature ratio (CTR) of thermoacoustic engines, a steady-state oscillation control method is proposed. The amplitude of the oscillating pressure is regulated to a reference value by a proportional-integral (PI) controller and a low-pass filter without specifying oscillation frequency. The output signal of the PI controller is used as a time-varying gain in a phase-delay controller so that the plant energy is maintained at a constant that depends on the reference pressure amplitude. A linear relation between the steady-state gain and temperature ratio is empirically observed, which provides an alternative method for estimating the CTR. The closed-loop stability of the proposed control system is analyzed by assuming a second-order resonance model, from which a stability condition on the PI controller's gains and the cut-off frequency of the low-pass filter is derived. The validity of the derived stability condition is shown by experimental results and numerical simulations.
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热声发动机稳态振荡的时变增益恒能量控制以估计临界温度比
为了估计热声发动机的临界温度比(CTR),提出了一种稳态振荡控制方法。在不指定振荡频率的情况下,通过比例积分(PI)控制器和低通滤波器将振荡压力的幅值调节到参考值。PI控制器的输出信号用作相位延迟控制器中的时变增益,以便植物能量保持在依赖于参考压力振幅的恒定值。经验观察到稳态增益与温度比之间存在线性关系,这为估计CTR提供了一种替代方法。通过假设二阶谐振模型,分析了该控制系统的闭环稳定性,推导了PI控制器增益和低通滤波器截止频率的稳定条件。实验结果和数值模拟验证了所导出的稳定性条件的有效性。
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