Automated Vehicle Dent Detection Using Hybrid Image Processing and Fuzzy Decision Making

Journal Title: Mechatronics and Intelligent Transportation Systems - Year 2025, Vol 4, Issue 1

Abstract

Automated detection of vehicle dents remains a challenging task due to variability in lighting conditions, surface textures, and the presence of minor deformations that may mimic actual dents. This paper presents a novel hybrid framework that integrates color deviation analysis, fuzzy classification, and the Structural Similarity Index (SSI) to enhance detection robustness and accuracy. The proposed model employs an adaptive bounding box generation technique, optimized via morphological operations, for precise dent localization. A newly introduced Color Difference Metric (CDM), computed in the Hue, Saturation, and Value (HSV) color space, quantifies subtle color deviations induced by dents, improving the system’s sensitivity to minor deformations. Furthermore, a hybrid classification mechanism—merging step-function classification with fuzzy membership functions—ensures smoother transitions between dent severity levels, mitigating the risks of hard thresholding. SSI serves as a structural integrity validator, helping to differentiate true dents from surface irregularities and lighting artifacts. A Dent Confidence Score is computed as a weighted aggregation of the step-function output, fuzzy confidence levels, and SSI response, effectively balancing sensitivity and specificity. Dents are categorized into three interpretable classes: No Dent, Possible Dent, and Confirmed Dent. Evaluation on real-world datasets—encompassing diverse lighting conditions, vehicle colors, and camera angles—demonstrates the model’s superior performance. Compared to traditional approaches, our method significantly improves key metrics such as Intersection over Union (IoU), Dice Coefficient, Precision, Recall, and F1-Score, underscoring its applicability in real-world automated dent detection systems.

Authors and Affiliations

Ikram Ullah, Kai Siong Yow

Keywords

Related Articles

Objective-Subjective CRITIC-MARCOS Model for Selection Forklift in Internal Transport Technology Processes

In today transport technology processes, forklifts are one of the most important equipment for making handling operations in order to increase sustainability. They have a large influence in achieving the efficiency and s...

Regional Transformation via Rail: A Historical and Analytical Examination of Iran's Railway Network and its Socio-Economic Impacts

The role of transport infrastructure, especially railways, in shaping a nation's socio-economic and cultural dynamics is of paramount importance. The present research delves into the profound influence of the railway net...

Regional Classification of Serbian Railway Transport System Through Efficient Synthetic Indicator

The railway transport system is one of the most important elements in the development of the economy and the social space of any area. The main objective of the study is to analyse the regional differentiation in railway...

Optimizing Vehicle Collision Safety: A Two-Mass Model with Dual Springs and Dampers for Accurate Crash Dynamics Prediction

A comprehensive analysis of vehicle collision dynamics is presented using a two-mass model that simulates the impact of a vehicle against a rigid barrier. The model incorporates dual springs and dampers to examine the in...

Analysis of Variables Influencing Towing Limits in Self-Propelled Rail Track Maintenance Equipment

The towing limits for self-propelled rail track maintenance equipment (SP-TME) are influenced by a multitude of factors, including the type and weight of the equipment, speed, braking capabilities, track and weather cond...

Download PDF file
  • EP ID EP764546
  • DOI https://doi.org/10.56578/mits040105
  • Views 23
  • Downloads 0

How To Cite

Ikram Ullah, Kai Siong Yow (2025). Automated Vehicle Dent Detection Using Hybrid Image Processing and Fuzzy Decision Making. Mechatronics and Intelligent Transportation Systems, 4(1), -. https://europub.co.uk/articles/-A-764546