涡轮机
核主成分分析
方位(导航)
风力发电
非线性系统
过程(计算)
主成分分析
状态监测
人工智能
能量(信号处理)
工程类
核(代数)
计算机科学
振动
降级(电信)
模式识别(心理学)
可靠性工程
支持向量机
机械工程
核方法
统计
电子工程
数学
物理
电气工程
量子力学
组合数学
操作系统
作者
Hamida Maatallah,Kaïs Ouni
标识
DOI:10.1177/0309524x221114054
摘要
High-speed shaft bearing (HSSB) failures are exorbitant since they lead electrical energy generation to halt suddenly. In order to identify the health condition of the wind turbine and preserve the sustainability of energy production, a nonlinear vibration-based monitoring technique based on kernel principal component analysis (KPCA) has been developed. After extracting degradation characteristics from the time, frequency, and time-frequency domains. The most sensitive features are then fused using KPCA to capture the monitored bearing’s operating conditions; this method demonstrated its efficiency in dealing with the nonlinearity of the system. To detect flaws in HSSB and assess whether it is healthy, degraded, or broken, [Formula: see text], and SPE charts have been used. Real run-to-failure data from a wind turbine HSSB is used to validate the proposed technique. The suggested strategy caught the nonlinear relationship in the process variables more successfully than existing techniques, including linear PCA, and demonstrated enhanced process monitoring performance.
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