🤖 AI Summary
To address cattle identification challenges arising from RFID ear tag loss, damage, and poor security, this paper proposes a few-shot biometric recognition method based on bovine nasal prints. To overcome key limitations—including scarce labeled data, dynamic addition of new individuals, and frequent model retraining—we introduce two innovations: (1) a collaborative, model-agnostic meta-learning framework (CCoMAML), and (2) a multi-head attention-based feature fusion mechanism (MHAFF). These jointly enhance the model’s zero-shot and few-shot adaptability to unseen individuals. Evaluated on a real-world ranch dataset, our method achieves F1 scores of 98.46% and 97.91% under respective few-shot settings—outperforming state-of-the-art few-shot recognition approaches. The approach delivers high accuracy, strong robustness against environmental variations and occlusions, and deployment efficiency, establishing a practical, field-deployable biometric paradigm for intelligent livestock management.
📝 Abstract
Cattle identification is critical for efficient livestock farming management, currently reliant on radio-frequency identification (RFID) ear tags. However, RFID-based systems are prone to failure due to loss, damage, tampering, and vulnerability to external attacks. As a robust alternative, biometric identification using cattle muzzle patterns similar to human fingerprints has emerged as a promising solution. Deep learning techniques have demonstrated success in leveraging these unique patterns for accurate identification. But deep learning models face significant challenges, including limited data availability, disruptions during data collection, and dynamic herd compositions that require frequent model retraining. To address these limitations, this paper proposes a novel few-shot learning framework for real-time cattle identification using Cooperative Model-Agnostic Meta-Learning (CCoMAML) with Multi-Head Attention Feature Fusion (MHAFF) as a feature extractor model. This model offers great model adaptability to new data through efficient learning from few data samples without retraining. The proposed approach has been rigorously evaluated against current state-of-the-art few-shot learning techniques applied in cattle identification. Comprehensive experimental results demonstrate that our proposed CCoMAML with MHAFF has superior cattle identification performance with 98.46% and 97.91% F1 scores.