Single Channel Blind Source Separation for Gas Regulators’ Acoustic Signal Using Eemd-Fastica

Sheng-guo Li, Hong-lang Li, Zihao Li, Yu-ling Wang, Yao Liu, Taotao Chen, Song-ling Tan, Zheng Su, Min Gao, Fei Jiang
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引用次数: 2

Abstract

The gas pressure regulator (GPR) is an important equipment in the gas pipeline network and fault detection of the gas pressure regulator is essential. Recently, an acoustic-emission-based method has been proposed for gas pressure regulator fault detection, while the single-channel signal of the regulator is mixed-signal due to the vibration of other components like pipes and pilot. In this paper, a single channel blind source separation (SCBSS) algorithm based on ensemble empirical mode decomposition (EEMD) and fast independent component analysis (FastICA) is introduced for gas regulators’ acoustic emission signal. The algorithm can solve the problem of mixed-signal and recover the source signal of GPR. The degree of the signals’ frequency center (FC) change when fault occurs evaluates the performance of algorithm. The experimental result show that it has been improved 53.06%, from 294Hz to 450Hz.
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基于Eemd-Fastica的气体调压器声信号单通道盲源分离
燃气调压器是燃气管网中的重要设备,对其进行故障检测是必不可少的。近年来,人们提出了一种基于声发射的气体调压器故障检测方法,但由于管道和导频等其他部件的振动,调压器的单通道信号是混合信号。针对气体调压器声发射信号,提出了一种基于集成经验模态分解(EEMD)和快速独立分量分析(FastICA)的单通道盲源分离(SCBSS)算法。该算法解决了探地雷达的混合信号问题,恢复了探地雷达的源信号。故障发生时信号的频率中心(FC)变化程度是评价算法性能的重要指标。实验结果表明,从294Hz到450Hz,提高了53.06%。
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