自抗扰控制
国家观察员
控制理论(社会学)
超调(微波通信)
PID控制器
气体压缩机
非线性系统
电子速度控制
计算机科学
工程类
物理
控制工程
控制(管理)
温度控制
电气工程
电信
机械工程
人工智能
量子力学
作者
Jiaming Zhou,Yingzheng Li,Jinming Zhang,Fengyan Yi,Chunxiao Feng,Caizhi Zhang,Bo Deng,Honglei Qi,Yu Wang,Shuo Wang
出处
期刊:Actuators
[MDPI AG]
日期:2024-10-16
卷期号:13 (10): 420-420
被引量:2
摘要
With the increasing power of fuel cells, ultra-high-speed electric air compressors (UHSEACs) have been widely used. However, due to the ultra-high speeds involved, UHSEACs face problems such as long speed adjustment times and large speed fluctuations. Compared to other control methods, Active Disturbance Rejection Control (ADRC) is well-suited for highly nonlinear systems like UHSEACs. The Extended State Observer (ESO), a key component of the ADRC, struggles to accurately observe high-frequency excitations. To address this, the first step is to add a cascaded structure to the ESO and design a Current State Extended State Observer (CS-ESO) to better observe the electromagnetic and load excitations in the UHSEAC. The second step involves designing the ADRC based on the CS-ESO and performing speed adjustment simulations. The third step is to build a UHSEAC experimental platform and a conduct speed adjustment experiment. The findings indicate that, compared to the Proportional Integral Derivative (PID) control, the ADRC with the ESO, and the Sliding Mode Control (SMC), the use of the ADRC with the CS-ESO results in a significant reduction in overshoot—by at least 760 RPM under load-increasing conditions and 140 RPM under load-reducing conditions. Furthermore, the speed regulation time is notably decreased by at least 0.2 s and 0.1 s under these respective conditions.
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