Design of Fault Detection System for Automobile Power Train Using Digital Signal Processing and Soft Computing Techniques
The increasing dependence of internal combustion engine in multitudes of application has mandated a detailed study on most of its subsystems. This paper focuses on predictive maintenance using machine learning based models. The transmission system of any power pace is often challenged due to sudden...
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| Veröffentlicht in: | International journal of manufacturing, materials, and mechanical engineering materials, and mechanical engineering, 2014-07, Vol.4 (3), p.50-63 |
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| container_title | International journal of manufacturing, materials, and mechanical engineering |
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| creator | Shankar, Karthik V K, Kailasnath Devasenapati, S Babu |
| description | The increasing dependence of internal combustion engine in multitudes of application has mandated a detailed study on most of its subsystems. This paper focuses on predictive maintenance using machine learning based models. The transmission system of any power pace is often challenged due to sudden variation in applied load. Any fault in the transmission system could lead to the catastrophic failures hence need for this work. This paper deals with the identification of various fault conditions that happen in a transmission system using vibration signals acquired by an accelerometer. The acquired signals are processed to extract the statistical and spectral features. These features are used to build a machine learning model using decision tree or Random forest algorithm. The best combination of features and algorithm is evaluated and the results are presented. |
| doi_str_mv | 10.4018/ijmmme.2014070103 |
| format | Article |
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This paper focuses on predictive maintenance using machine learning based models. The transmission system of any power pace is often challenged due to sudden variation in applied load. Any fault in the transmission system could lead to the catastrophic failures hence need for this work. This paper deals with the identification of various fault conditions that happen in a transmission system using vibration signals acquired by an accelerometer. The acquired signals are processed to extract the statistical and spectral features. These features are used to build a machine learning model using decision tree or Random forest algorithm. 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| subjects | Accelerometers Algorithms Automobiles Automotive engineering Decision trees Detectors Digital signal processing Digital signal processors Fault detection Faults Internal combustion engines Machine learning Maintenance and repair Mathematical models Methods Powertrain Predictive maintenance Signal processing Soft computing Subsystems Transmissions (automotive) Vibration |
| title | Design of Fault Detection System for Automobile Power Train Using Digital Signal Processing and Soft Computing Techniques |
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