AN INDUSTRIAL INSPECTION APPROACH FOR WELD DEFECTS USING MACHINE LEARNING ALGORITHM

The weld defects are formed due to the incorrect welding patterns or wrong welding process. The defects in the weld may vary from size, shape and their projected quality. The most common weld defects occur during welding process is slag inclusions, porosity, lack of fusion and incomplete penetration...

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Main Authors: Kalai Selvi V, John Aravindar D
Format: Article
Language:English
Published: XLESCIENCE 2019-06-01
Series:International Journal of Advances in Signal and Image Sciences
Subjects:
Online Access:https://xlescience.org/index.php/IJASIS/article/view/38
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spelling doaj-ee200afa47a0472bb52530b062a419042020-11-25T02:38:05ZengXLESCIENCEInternational Journal of Advances in Signal and Image Sciences2457-03702019-06-0151152110.29284/ijasis.5.1.2019.15-2138AN INDUSTRIAL INSPECTION APPROACH FOR WELD DEFECTS USING MACHINE LEARNING ALGORITHMKalai Selvi VJohn Aravindar DThe weld defects are formed due to the incorrect welding patterns or wrong welding process. The defects in the weld may vary from size, shape and their projected quality. The most common weld defects occur during welding process is slag inclusions, porosity, lack of fusion and incomplete penetration. In this study, an effective method for weld defect classification using machine learning algorithm is presented. The system uses Speeded-up Robust Features (SURF) for feature extraction and one of the machine learning algorithms called Auto-Encoder Classifier (AEC) for classification. Initially, the features that distinguish weld defects and no defects in the weld image are extracted by SURF. Then, AEC is analyzed for weld image classification using different number of neurons in different hidden layers (2 and 3 hidden layers). The performance of the system is evaluated by GD X-ray weld image database. The results show that the weld images are correctly classified with 98% accuracy using SURF and AEC.https://xlescience.org/index.php/IJASIS/article/view/38x-ray weld images, weld image classification, speeded-up robust features, machine learning, auto-encoder classifier
collection DOAJ
language English
format Article
sources DOAJ
author Kalai Selvi V
John Aravindar D
spellingShingle Kalai Selvi V
John Aravindar D
AN INDUSTRIAL INSPECTION APPROACH FOR WELD DEFECTS USING MACHINE LEARNING ALGORITHM
International Journal of Advances in Signal and Image Sciences
x-ray weld images, weld image classification, speeded-up robust features, machine learning, auto-encoder classifier
author_facet Kalai Selvi V
John Aravindar D
author_sort Kalai Selvi V
title AN INDUSTRIAL INSPECTION APPROACH FOR WELD DEFECTS USING MACHINE LEARNING ALGORITHM
title_short AN INDUSTRIAL INSPECTION APPROACH FOR WELD DEFECTS USING MACHINE LEARNING ALGORITHM
title_full AN INDUSTRIAL INSPECTION APPROACH FOR WELD DEFECTS USING MACHINE LEARNING ALGORITHM
title_fullStr AN INDUSTRIAL INSPECTION APPROACH FOR WELD DEFECTS USING MACHINE LEARNING ALGORITHM
title_full_unstemmed AN INDUSTRIAL INSPECTION APPROACH FOR WELD DEFECTS USING MACHINE LEARNING ALGORITHM
title_sort industrial inspection approach for weld defects using machine learning algorithm
publisher XLESCIENCE
series International Journal of Advances in Signal and Image Sciences
issn 2457-0370
publishDate 2019-06-01
description The weld defects are formed due to the incorrect welding patterns or wrong welding process. The defects in the weld may vary from size, shape and their projected quality. The most common weld defects occur during welding process is slag inclusions, porosity, lack of fusion and incomplete penetration. In this study, an effective method for weld defect classification using machine learning algorithm is presented. The system uses Speeded-up Robust Features (SURF) for feature extraction and one of the machine learning algorithms called Auto-Encoder Classifier (AEC) for classification. Initially, the features that distinguish weld defects and no defects in the weld image are extracted by SURF. Then, AEC is analyzed for weld image classification using different number of neurons in different hidden layers (2 and 3 hidden layers). The performance of the system is evaluated by GD X-ray weld image database. The results show that the weld images are correctly classified with 98% accuracy using SURF and AEC.
topic x-ray weld images, weld image classification, speeded-up robust features, machine learning, auto-encoder classifier
url https://xlescience.org/index.php/IJASIS/article/view/38
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