A Machine Learning-Based Method for Predicting the Classification of Aircraft Damage
DOI:
https://doi.org/10.4108/eetiot.6936Keywords:
Aircraft Damage Classification, Machine Learning, Predictive Maintenance, Structural Assessment, Aviation Safety, Maintenance PlanningAbstract
Efficient and accurate classification of aircraft damage is paramount in ensuring the safety and reliability of air transportation. This research uses a machine learning-based approach tailored to predict the classification of aircraft damage with high precision and reliability to achieve data-driven insights as input for the improvement of safety standards. Leveraging a diverse dataset encompassing various types and severities of damage instances, our methodology harnesses the power of machine learning algorithms to discern patterns and correlations within the data. The approach involves using extensive datasets consisting of various structural attributes, flight data, and environmental conditions. The Random Forest algorithm, Support Vector Machine, and Neural Networks methods used in the research are more accurate than traditional methods, providing detailed information on the factors contributing to damage severity. By using machine learning, maintenance schedules can be optimized and flight safety can be improved. This research is a significant step toward predictive maintenance, which is poised to improve safety standards in the aerospace industry.
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