P‐42: AI‐Based Rapid Defect Detection Method for Display Screen Appearance

The display manufacturing industry faces growing challenges as pixel sizes shrink and product complexity increases. Traditional defect detection algorithms, while widely adopted, suffer from three critical limitations: (1) Scenario‐specific customization requiring labor‐intensive parameter adjustments during product transitions; (2) Compromised efficiency due to manual balancing between over‐detection (false positives) and underdetection (missed defects); (3) Inability to handle emerging defect types in advanced manufacturing processes. This study proposes a universal AI‐driven inspection framework integrating a dual‐stage detection architecture: A high‐speed screening module rapidly filters defect‐free regions (> 99% elimination rate), followed by a deep learning‐based classification module for precise defect identification. Implemented with an optimized YOLO architecture incorporating global attention mechanisms and dimensionality reduction, our solution achieves a 3% to 5% higher accuracy than baseline models while maintaining real‐time processing capabilities. The system demonstrates strong adaptability across diverse defect types (scratches, ITO defects, particle contamination, etc.) and industrial scenarios, with deployment timelines reduced by 68% compared to conventional methods.

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Publication Details

Journal
SID Symposium Digest of Technical Papers
Published
2025-06-01
DOI
https://doi.org/10.1002/sdtp.18503
Primary Topic
Theoretical and Computational Physics
Type
article
Field-Weighted Citation Impact
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article

P‐42: AI‐Based Rapid Defect Detection Method for Display Screen Appearance

SID Symposium Digest of Technical Papers
Theoretical and Computational Physics
article

P‐42: AI‐Based Rapid Defect Detection Method for Display Screen Appearance

article en

Abstract

The display manufacturing industry faces growing challenges as pixel sizes shrink and product complexity increases. Traditional defect detection algorithms, while widely adopted, suffer from three critical limitations: (1) Scenario‐specific customization requiring labor‐intensive parameter adjustments during product transitions; (2) Compromised efficiency due to manual balancing between over‐detection (false positives) and underdetection (missed defects); (3) Inability to handle emerging defect types in advanced manufacturing processes. This study proposes a universal AI‐driven inspection framework integrating a dual‐stage detection architecture: A high‐speed screening module rapidly filters defect‐free regions (> 99% elimination rate), followed by a deep learning‐based classification module for precise defect identification. Implemented with an optimized YOLO architecture incorporating global attention mechanisms and dimensionality reduction, our solution achieves a 3% to 5% higher accuracy than baseline models while maintaining real‐time processing capabilities. The system demonstrates strong adaptability across diverse defect types (scratches, ITO defects, particle contamination, etc.) and industrial scenarios, with deployment timelines reduced by 68% compared to conventional methods.

SID Symposium Digest of Technical PapersVol. 56(1)
BOE Technology Group (China) (CN)
Decent work and economic growth
Openalex Percentile: Top 42%
Theoretical and Computational Physics
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P‐42: AI‐Based Rapid Defect Detection Method for Display Screen Appearance · SID Symposium Digest of Technical Papers (2025) | TGRS Research Map | TGRS