Grid-level Multiclass Soiling Classification Model for Driving Systems

This study proposes a soiling detection algorithm to identify and locate contamination in vehicle camera lenses. Research on AI applications that utilize cameras and distance sensors in driving systems is directly related to the advancement of autonomous driving systems., Detecting soiling, such as mud and water droplets, is a particularly critical issue. Traditional methods using piezoelectric, ultrasonic, and thermal sensors can introduce additional design and maintenance complexity. Therefore, this study aims to reduce this complexity by utilizing existing surround-view cameras installed on vehicles without additional sensors. The proposed algorithm employs image-processing techniques and a lightweight neural network architecture based on ResNet18 to detect lens contamination in real-time across various driving environments. Experiments were conducted using 5,000 images from the WoodScape Soiling Dataset. The input images were divided into a 16 × 16 grid and classified into four labels: opaque, semitransparent, transparent, and clean. The proposed grid-level multiclass soiling classification model demonstrated effective performance in detecting contamination, including mud, water droplets, and foggy dust. This study is expected to enhance the safety and convenience of driving systems.

Authors

Publication Details

Journal
Journal of Institute of Control Robotics and Systems
Published
2024-10-16
DOI
https://doi.org/10.5302/j.icros.2024.24.0179
Primary Topic
Vehicle License Plate Recognition
Type
article
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article

Grid-level Multiclass Soiling Classification Model for Driving Systems

Youngbae Hwang, Taewoo Kim
Journal of Institute of Control Robotics and Systems
Vehicle License Plate Recognition
article

Grid-level Multiclass Soiling Classification Model for Driving Systems

Youngbae Hwang, Taewoo Kim
article en

Abstract

This study proposes a soiling detection algorithm to identify and locate contamination in vehicle camera lenses. Research on AI applications that utilize cameras and distance sensors in driving systems is directly related to the advancement of autonomous driving systems., Detecting soiling, such as mud and water droplets, is a particularly critical issue. Traditional methods using piezoelectric, ultrasonic, and thermal sensors can introduce additional design and maintenance complexity. Therefore, this study aims to reduce this complexity by utilizing existing surround-view cameras installed on vehicles without additional sensors. The proposed algorithm employs image-processing techniques and a lightweight neural network architecture based on ResNet18 to detect lens contamination in real-time across various driving environments. Experiments were conducted using 5,000 images from the WoodScape Soiling Dataset. The input images were divided into a 16 × 16 grid and classified into four labels: opaque, semitransparent, transparent, and clean. The proposed grid-level multiclass soiling classification model demonstrated effective performance in detecting contamination, including mud, water droplets, and foggy dust. This study is expected to enhance the safety and convenience of driving systems.

Journal of Institute of Control Robotics and SystemsVol. 30(10)
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Openalex Percentile: Top 72%
Vehicle License Plate Recognition
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Grid-level Multiclass Soiling Classification Model for Driving Systems — Youngbae Hwang, Taewoo Kim · Journal of Institute of Control Robotics and Systems (2024) | TGRS Research Map | TGRS