Using Deep Learning to Detect Defects in Manufacturing: A Comprehensive Survey and Current Challenges
Применение глубокого обучения для обнаружения дефектов в производстве: всесторонний обзор и современные проблемы
2020-12-16
SCID: 54.1/mb3euqby
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deep learning for defect detectionmachine visionmanufacturing quality controlsmall object detectionultrasonic testing
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Abstract (AI)
The detection of product defects is essential in quality control in manufacturing. This study surveys stateoftheart deep-learning methods in defect detection. First, we classify the defects of products, such as electronic components, pipes, welded parts, and textile materials, into categories. Second, recent mainstream techniques and deep-learning methods for defects are reviewed with their characteristics, strengths, and shortcomings described. Third, we summarize and analyze the application of ultrasonic testing, filtering, deep learning, machine vision, and other technologies used for defect detection, by focusing on three aspects, namely method and experimental results. To further understand the difficulties in the field of defect detection, we investigate the functions and characteristics of existing equipment used for defect detection. The core ideas and codes of studies related to high precision, high positioning, rapid detection, small object, complex background, occluded object detection and object association, are summarized. Lastly, we outline the current achievements and limitations of the existing methods, along with the current research challenges, to assist the research community on defect detection in setting a further agenda for future studies.
Key Findings
1
Identifies core ideas and code-related approaches addressing high precision, high localization, rapid detection, small objects, complex backgrounds, occlusion, and object association.
2
Outlines current achievements, limitations, and research challenges to guide future defect-detection studies and agendas.
3
Provides a taxonomy/classification of product defects across domains including electronic components, pipes, welded parts, and textile materials.
4
Summarizes applications and experimental results of ultrasonic testing, filtering, deep learning, and machine vision for defect detection.
5
Surveys recent mainstream deep-learning techniques for defect detection, describing their characteristics, strengths, and shortcomings.
Research Object
Defect detection in manufactured products (electronic components, pipes, welded parts, textile materials) using deep-learning and related sensing technologies
Research Subject
Performance, capabilities, limitations, and challenges of state-of-the-art deep-learning methods and allied techniques (ultrasonic testing, filtering, machine vision) for high-precision, high-positioning, rapid detection of small, occluded, and complex-background defects including method characteristics, strengths, shortcomings, equipment functions, and experimental results
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2020-12-16
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