Deep Learning Framework for Structural Faults Classification of a Nano Quadcopter

This paper describes a deep learning framework for fault classification of a nano-quadcopter. Based on Crazyflie data, several structural faults are analyzed such as blade damage, weight and inertia imbalance, etc. The Deep Neural Network (DNN) achieved very high accuracy (98.56%) and the fastest inference time (0.92 seconds), though it requires longer training (533.73 seconds). XGBoost provides a good balance with high accuracy (96.17%) and a relatively fast inference time (3.64 seconds). The k-Nearest Neighbors (KNN) model has a swift training time (0.08 seconds) but suffers from a long inference time (58.74 seconds). LightGBM, while having the highest accuracy (98.67%), faces challenges with the longest training (2367.61 seconds) and inference times (145.76 seconds). Nevertheless, robust feature engineering is found to improve the model performance as well as the transparency and explainability of AI systems in safety-critical applications.

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Publication Details

Published
2025-04-13
DOI
https://doi.org/10.1109/wids-psu64963.2025.00047
Primary Topic
Fault Detection and Control Systems
Type
article
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article

Deep Learning Framework for Structural Faults Classification of a Nano Quadcopter

Zeashan Hameed Khan, Sultan Alamri, Samir Mekid, Salha Alyami et al.
Fault Detection and Control Systems
article

Deep Learning Framework for Structural Faults Classification of a Nano Quadcopter

Zeashan Hameed Khan, Sultan Alamri, Samir Mekid, Salha Alyami, Rawan Y. Albarakati, Rema Y. Albarakati, Shatha T. Alsaidy
article en

Abstract

This paper describes a deep learning framework for fault classification of a nano-quadcopter. Based on Crazyflie data, several structural faults are analyzed such as blade damage, weight and inertia imbalance, etc. The Deep Neural Network (DNN) achieved very high accuracy (98.56%) and the fastest inference time (0.92 seconds), though it requires longer training (533.73 seconds). XGBoost provides a good balance with high accuracy (96.17%) and a relatively fast inference time (3.64 seconds). The k-Nearest Neighbors (KNN) model has a swift training time (0.08 seconds) but suffers from a long inference time (58.74 seconds). LightGBM, while having the highest accuracy (98.67%), faces challenges with the longest training (2367.61 seconds) and inference times (145.76 seconds). Nevertheless, robust feature engineering is found to improve the model performance as well as the transparency and explainability of AI systems in safety-critical applications.

King Fahd University of Petroleum and Minerals (SA), University of Sharjah (AE), University of Jeddah (SA), University of Business and Technology (SA), College of Business Administration (LV)
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Openalex Percentile: Top 87%
Fault Detection and Control Systems
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Deep Learning Framework for Structural Faults Classification of a Nano Quadcopter — Zeashan Hameed Khan, Sultan Alamri, et al. · (2025) | TGRS Research Map | TGRS