Article Information

Authors DR. JYOTI. Y. KULKARNI
Article Type Research Article
Language English
Journal North Asian International Research Journal of Multidisciplinary
ISSN 2454-2326
Volume 12
Issue 5
Pages 29-41
Publication Year 2026
Publication Date May 01, 2026
DOI URL https://doiglobal.org/10.2026/NAIRJCMD.010

Abstract

Road traffic crashes remain a major transportation and public-safety challenge in India. Predicting crash severity can support proactive engineering, enforcement and emergency-response decisions by identifying combinations of road, vehicle, environmental and temporal factors associated with serious outcomes. This paper proposes an explainable machine-learning framework for predicting accident severity on Indian highways. The framework integrates structured crash records, data cleaning, categorical encoding, imbalance treatment, feature engineering, Random Forest, Gradient Boosting and XGBoost-style tree ensembles, followed by SHAP-based interpretation. Rather than presenting fabricated experimental performance, the paper uses published Indian highway studies as comparative evidence and defines a reproducible protocol for future model validation. Apeer-reviewed Indian-highway Random Forest study using 3,257 observations and 32 variables reported 67% training accuracy but only 41.47% test accuracy, demonstrating the danger of imbalance and weak generalization. A 2025 MethodsX framework subsequently emphasized Random Forest, Gradient Boosting and SHAP interpretation for Indian highway severity prediction. Another Indian expressway study analyzed 2,747 crashes using multinomial logit, decision tree and Random Forest models. The proposed research therefore prioritizes balanced evaluation, macro-F1, class-wise recall, calibration and explainability rather than accuracy alone. The paper argues that interpretable AI can help identify high-risk conditions and support road-safety planning, but predictive models should supplement not replace engineering judgment, police investigation and validated crash databases.

Keywords

road accident severity Indian highways machine learning Random Forest Gradient Boosting

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DOI: 10.2026/NAIRJCMD.010

References

1. Khanum, H., Garg, A., & Faheem, M. I. (2023). Accident severity prediction modeling for road safety using random forest algorithm: An analysis of Indian highways.
2. Khanum, H., Garg, A., Faheem, M. I., & Kulkarni, R. (2025). A methodological framework for road accident severity prediction for Indian highways using machine learning models.
3. Garg, T., Chatterjee, S., & Maitra, B. (2024). Analysis of road traffic crash severity through machine learning on Indian highways. Journal of the Eastern Asia Society for Transportation Studies.
4. Analysing crash severity on expressways in India: Statistical and machine learning models. (2025). Proceedings of the Institution of Civil Engineers - Transport.

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Recommended Citation

DR. JYOTI. Y. KULKARNI (2026). EXPLAINABLE AI-BASED ROAD ACCIDENT SEVERITY PREDICTION FOR INDIAN HIGHWAYS USING MACHINE LEARNING. North Asian International Research Journal of Multidisciplinary. DOI: https://doiglobal.org/10.2026/NAIRJCMD.010

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North Asian International Research Journal of Multidisciplinary

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