An improved AE detection method of rail defect based on multi-level ANC with VSS-LMS

•An improved AE detection method of rail defect is proposed.•A rail-wheel test rig is set up to obtain the defect signals and noise signals.•Multi-level noise cancellation is employed to eliminate complex noises at high speed.•Improved tongue-like curve is utilized to enhance the performance of LMS....

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Published inMechanical systems and signal processing Vol. 99; pp. 420 - 433
Main Authors Zhang, Xin, Cui, Yiming, Wang, Yan, Sun, Mingjian, Hu, Hengshan
Format Journal Article
LanguageEnglish
Published Berlin Elsevier Ltd 15.01.2018
Elsevier BV
Subjects
Online AccessGet full text
ISSN0888-3270
1096-1216
DOI10.1016/j.ymssp.2017.06.029

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Abstract •An improved AE detection method of rail defect is proposed.•A rail-wheel test rig is set up to obtain the defect signals and noise signals.•Multi-level noise cancellation is employed to eliminate complex noises at high speed.•Improved tongue-like curve is utilized to enhance the performance of LMS.•Filter lengths are investigated to obtain a better noise suppression performance. In order to ensure the safety and reliability of railway system, Acoustic Emission (AE) method is employed to investigate rail defect detection. However, little attention has been paid to the defect detection at high speed, especially for noise interference suppression. Based on AE technology, this paper presents an improved rail defect detection method by multi-level ANC with VSS-LMS. Multi-level noise cancellation based on SANC and ANC is utilized to eliminate complex noises at high speed, and tongue-shaped curve with index adjustment factor is proposed to enhance the performance of variable step-size algorithm. Defect signals and reference signals are acquired by the rail-wheel test rig. The features of noise signals and defect signals are analyzed for effective detection. The effectiveness of the proposed method is demonstrated by comparing with the previous study, and different filter lengths are investigated to obtain a better noise suppression performance. Meanwhile, the detection ability of the proposed method is verified at the top speed of the test rig. The results clearly illustrate that the proposed method is effective in detecting rail defects at high speed, especially for noise interference suppression.
AbstractList In order to ensure the safety and reliability of railway system, Acoustic Emission (AE) method is employed to investigate rail defect detection. However, little attention has been paid to the defect detection at high speed, especially for noise interference suppression. Based on AE technology, this paper presents an improved rail defect detection method by multi-level ANC with VSS-LMS. Multi-level noise cancellation based on SANC and ANC is utilized to eliminate complex noises at high speed, and tongue-shaped curve with index adjustment factor is proposed to enhance the performance of variable step-size algorithm. Defect signals and reference signals are acquired by the rail-wheel test rig. The features of noise signals and defect signals are analyzed for effective detection. The effectiveness of the proposed method is demonstrated by comparing with the previous study, and different filter lengths are investigated to obtain a better noise suppression performance. Meanwhile, the detection ability of the proposed method is verified at the top speed of the test rig. The results clearly illustrate that the proposed method is effective in detecting rail defects at high speed, especially for noise interference suppression.
•An improved AE detection method of rail defect is proposed.•A rail-wheel test rig is set up to obtain the defect signals and noise signals.•Multi-level noise cancellation is employed to eliminate complex noises at high speed.•Improved tongue-like curve is utilized to enhance the performance of LMS.•Filter lengths are investigated to obtain a better noise suppression performance. In order to ensure the safety and reliability of railway system, Acoustic Emission (AE) method is employed to investigate rail defect detection. However, little attention has been paid to the defect detection at high speed, especially for noise interference suppression. Based on AE technology, this paper presents an improved rail defect detection method by multi-level ANC with VSS-LMS. Multi-level noise cancellation based on SANC and ANC is utilized to eliminate complex noises at high speed, and tongue-shaped curve with index adjustment factor is proposed to enhance the performance of variable step-size algorithm. Defect signals and reference signals are acquired by the rail-wheel test rig. The features of noise signals and defect signals are analyzed for effective detection. The effectiveness of the proposed method is demonstrated by comparing with the previous study, and different filter lengths are investigated to obtain a better noise suppression performance. Meanwhile, the detection ability of the proposed method is verified at the top speed of the test rig. The results clearly illustrate that the proposed method is effective in detecting rail defects at high speed, especially for noise interference suppression.
Author Zhang, Xin
Hu, Hengshan
Sun, Mingjian
Cui, Yiming
Wang, Yan
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Keywords Acoustic emission
Variable step-size algorithm
Rail defect detection
Adaptive noise cancellation
Language English
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Snippet •An improved AE detection method of rail defect is proposed.•A rail-wheel test rig is set up to obtain the defect signals and noise signals.•Multi-level noise...
In order to ensure the safety and reliability of railway system, Acoustic Emission (AE) method is employed to investigate rail defect detection. However,...
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StartPage 420
SubjectTerms Acoustic emission
Acoustic emission testing
Acoustic noise
Adaptive noise cancellation
Emission analysis
High speed
Interference
Rail defect detection
Railways
Reference signals
Studies
Tongue
Variable step-size algorithm
Title An improved AE detection method of rail defect based on multi-level ANC with VSS-LMS
URI https://dx.doi.org/10.1016/j.ymssp.2017.06.029
https://www.proquest.com/docview/1966073964
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