TY - GEN
T1 - Drone Recognition Using Deep Learning Methods
AU - Tang, Zehua
AU - Lawrence, Victor
AU - Man, Hong
AU - Yao, Yu-Dong
N1 - Publisher Copyright:
© 2026 IEEE.
PY - 2026
Y1 - 2026
N2 - Bird and drone detection is a critical visual classification task in intelligent monitoring systems, with practical applications in airport surveillance, low-altitude airspace management, and public safety. However, reliable classification remains highly challenging due to the typically small size of flying targets and their susceptibility to changes in viewpoint, motion blur, background interference, and significant intra-class variation in bird samples. In this paper, we systematically compare the performance of eight deep learning models - including four convolutional neural networks and four visual Transformer models - on the bird-drone closed-set classification task under a unified experimental protocol. All models were initialized with ImageNet pre-trained weights and trained and tested under the same data partitioning, training strategies, and evaluation metrics. The results indicate that all models achieved high classification accuracy on the current dataset, but significant differences still exist among different architectures. The optimal model achieved the highest classification accuracy, while models exhibiting a better balance between accuracy and training efficiency demonstrated superior overall performance. Confusion matrix analysis further indicates that classifying the "Bird"class is generally more challenging than the "Drone"class, with the primary error pattern being the misclassification of 'Bird' as "Drone."These results provide a clear closed-set comparison baseline for bird-drone recognition and offer guidance for model selection in small-object visual classification tasks.
AB - Bird and drone detection is a critical visual classification task in intelligent monitoring systems, with practical applications in airport surveillance, low-altitude airspace management, and public safety. However, reliable classification remains highly challenging due to the typically small size of flying targets and their susceptibility to changes in viewpoint, motion blur, background interference, and significant intra-class variation in bird samples. In this paper, we systematically compare the performance of eight deep learning models - including four convolutional neural networks and four visual Transformer models - on the bird-drone closed-set classification task under a unified experimental protocol. All models were initialized with ImageNet pre-trained weights and trained and tested under the same data partitioning, training strategies, and evaluation metrics. The results indicate that all models achieved high classification accuracy on the current dataset, but significant differences still exist among different architectures. The optimal model achieved the highest classification accuracy, while models exhibiting a better balance between accuracy and training efficiency demonstrated superior overall performance. Confusion matrix analysis further indicates that classifying the "Bird"class is generally more challenging than the "Drone"class, with the primary error pattern being the misclassification of 'Bird' as "Drone."These results provide a clear closed-set comparison baseline for bird-drone recognition and offer guidance for model selection in small-object visual classification tasks.
KW - Bird-drone recognition
KW - Closed-set classification
KW - Deep learning
UR - https://www.scopus.com/pages/publications/105042978205
UR - https://www.scopus.com/pages/publications/105042978205#tab=citedBy
U2 - 10.1109/WOCC69802.2026.11556198
DO - 10.1109/WOCC69802.2026.11556198
M3 - Conference contribution
AN - SCOPUS:105042978205
T3 - 35th Wireless and Optical Communications Conference, WOCC 2026
BT - 35th Wireless and Optical Communications Conference, WOCC 2026
T2 - 35th Wireless and Optical Communications Conference, WOCC 2026
Y2 - 8 May 2026 through 9 May 2026
ER -