This study presents a multidisciplinary approach for classifying three cat categories, European wildcats (Felis silvestris, WC), hybrids (F. silvestris × catus, HY), and domestic cats (F. catus, DC), using convolutional neural networks (CNNs) on real-world images collected from camera traps, roadkills, and research teams. The initial dataset included 3,392 images (WC = 1,738; HY = 461; DC = 1,193) and was filtered using YOLOv12 to retain clearly visible cats, resulting in 2,518 images (WC = 1,201; HY = 461; DC = 856). We achieved the highest CNN’s accuracy 86% on the balanced dataset and 71% on the genetically validated dataset. When trained on the larger, unbalanced dataset, accuracy on the genetic test increased to 81%, indicating that enlarging datasets may effectively compensate for class imbalance. An offline-capable mobile app was developed for field use, supporting local photo capturing and usability feedback via an included and structured questionnaire for future analysis. This work is the result of a synergistic collaboration among computer scientists, wildcat researchers, and citizen scientists. The proposed model offers a consistent and reproducible field-ready tool for European wildcat conservation.
Fargetta, G., Anile, S., Priano, L., Spata, M.O., Ortis, A., Battiato, S. (2025). Bridging AI and wildlife conservation: Classifying wildcats from genetically validated images. ECOLOGICAL INFORMATICS, 92 [10.1016/j.ecoinf.2025.103467].
Bridging AI and wildlife conservation: Classifying wildcats from genetically validated images
Anile, StefanoSecondo
;
2025-01-01
Abstract
This study presents a multidisciplinary approach for classifying three cat categories, European wildcats (Felis silvestris, WC), hybrids (F. silvestris × catus, HY), and domestic cats (F. catus, DC), using convolutional neural networks (CNNs) on real-world images collected from camera traps, roadkills, and research teams. The initial dataset included 3,392 images (WC = 1,738; HY = 461; DC = 1,193) and was filtered using YOLOv12 to retain clearly visible cats, resulting in 2,518 images (WC = 1,201; HY = 461; DC = 856). We achieved the highest CNN’s accuracy 86% on the balanced dataset and 71% on the genetically validated dataset. When trained on the larger, unbalanced dataset, accuracy on the genetic test increased to 81%, indicating that enlarging datasets may effectively compensate for class imbalance. An offline-capable mobile app was developed for field use, supporting local photo capturing and usability feedback via an included and structured questionnaire for future analysis. This work is the result of a synergistic collaboration among computer scientists, wildcat researchers, and citizen scientists. The proposed model offers a consistent and reproducible field-ready tool for European wildcat conservation.| File | Dimensione | Formato | |
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Fargetta et al. - 2025 - Bridging AI and wildlife conservation Classifying wildcats from genetically validated images 2.pdf
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