Skip to content
Conference Open access

Defect Detection on Metal Surface Using Deep Learning Algorithms Based on Convolutional Neural Network

Aug 2026 · Engineering · 0 citations · 9 references

TL;DR

The method will give a scalable deep learning framework for defect detection, enabling real time integration in manufacturing industries and illustrating the usefulness of deep learning-based methods for automated fault identification.

Abstract

This project aims to develop a deep learning model utilizing Convolutional Neural Networks (CNNs) to detect and categorize surface defects in metal photos. Traditional manual inspection is typically slow, uneven, and full of mistakes, with a research gap in automated solutions. The objective is to provide an effective and dependable solution for fault identification, crucial in manufacturing and quality control procedures. A proprietary CNN will be trained on a large dataset of labeled pictures, facilitating the extraction of critical characteristics via convolutional, pooling, and fully connected layers. The project will examine the usage of pre-trained models such as VGG16 and ResNet50. These models will be evaluated singly and in combination using an ensemble method to boost classification accuracy and resilience. The models’ performances will be measured based on evolution metrics such as accuracy, loss, and their ability to categorize photos into one of the defect categories. It is predicted that the ensemble strategy would give greater performance compared to individual models, illustrating the usefulness of deep learning-based methods for automated fault identification. The method will give a scalable deep learning framework for defect detection, enabling real time integration in manufacturing industries.

Read PDF

Similar papers

Conference Open access Sep 2026

Object Surface Defect Segmentation using Vision Transformers and Hybrid Models

An empirical comparison between three deep learning frameworks for pixel-based surface defect detection: a baseline CNN architecture known as U-Net, Vision Transformer (ViT) based on patch-wise attention mechanism, and TransUNet that combines CNN and transformer architecture.

Santhya C, VS Sneha Chowdary, Beaulah Jeyavathana · 0 citations
Open access Sep 2026

Lightweight defect detection on mica sheets via focused distillation for industrial measurement

This paper builds a high-precision automated vision acquisition system and builds a mica sheet defect detector using Faster Region-based Convolutional Neural Network (Faster R-CNN), which achieves accurate classification and localization of defects after training on the custom dataset.

Jian-Hong Huang, Bo Zhang, Jing-Nan Zhou et al. · 0 citations
Aug 2026

Intelligent defect detection in composite materials: the role of deep learning and machine learning fusion

A novel integration of deep learning (DL) and machine learning (ML) for non-destructive testing (NDT) of composite materials, achieving superior defect detection performance and highlighting the potential of DL-ML fusion for automated quality control and structural integrity assessment in composite materials.

Mehmet Akif Buzpınar · 1 citation
Open access Sep 2026

Open source deep learning models for accurate fastener defect inspection

The present work investigates the possibility of adopting open source DL models, specifically Transformer-based architectures and Convolutional Neural Networks, to classify fastener component images into defective or non-defective, and to segment defective ones, in order to enhance detection localization and to support...

Andrea Santomauro, Luigi Portinale, Stefania Montani et al. · 0 citations
Open access Aug 2026

A CNN-Based Image Detection System for Full-Surface Defects in Brown Rice

This study demonstrates the feasibility of CNN-based brown rice defect detection, with future work directed toward lightweight deployment and multimodal fusion for production-line application.

Zhao You, Jian-Chun Yan, Hai Wei et al. · 0 citations

We use cookies to run the site and, with your consent, for analytics and to show ads. See our Cookie Policy.