Taguchi based Design of Sequential Convolution Neural Network for
Classification of Defective Fasteners
- URL: http://arxiv.org/abs/2207.10992v1
- Date: Fri, 22 Jul 2022 10:26:07 GMT
- Title: Taguchi based Design of Sequential Convolution Neural Network for
Classification of Defective Fasteners
- Authors: Manjeet Kaur and Krishan Kumar Chauhan and Tanya Aggarwal and Pushkar
Bharadwaj and Renu Vig and Isibor Kennedy Ihianle and Garima Joshi and Kayode
Owa
- Abstract summary: This study uses Taguchi-based design of experiments and analysis to develop a robust automatic system.
The proposed sequential CNN comes up with a 96.3% validation accuracy, 0.277 validation loss at 0.001 learning rate.
- Score: 0.08795040582681389
- License: http://creativecommons.org/licenses/by/4.0/
- Abstract: Fasteners play a critical role in securing various parts of machinery.
Deformations such as dents, cracks, and scratches on the surface of fasteners
are caused by material properties and incorrect handling of equipment during
production processes. As a result, quality control is required to ensure safe
and reliable operations. The existing defect inspection method relies on manual
examination, which consumes a significant amount of time, money, and other
resources; also, accuracy cannot be guaranteed due to human error. Automatic
defect detection systems have proven impactful over the manual inspection
technique for defect analysis. However, computational techniques such as
convolutional neural networks (CNN) and deep learning-based approaches are
evolutionary methods. By carefully selecting the design parameter values, the
full potential of CNN can be realised. Using Taguchi-based design of
experiments and analysis, an attempt has been made to develop a robust
automatic system in this study. The dataset used to train the system has been
created manually for M14 size nuts having two labeled classes: Defective and
Non-defective. There are a total of 264 images in the dataset. The proposed
sequential CNN comes up with a 96.3% validation accuracy, 0.277 validation loss
at 0.001 learning rate.
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