ArticleZoological research2026
HISNET-FF: Hierarchical identification of species using a network with fused cranial and dental features.
Article in Zoological research, 2026. The graph could read no effect estimate from its abstract, so it casts no vote on the map. Not yet cited in PubMed.
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Abstract
Accurate taxonomic identification based on mammalian craniodental features remains critical for evolutionary, ecological, and paleontological research, yet conventional approaches are time-intensive and demand expert input. To overcome these limitations, a deep learning framework, HISNET-FF, was developed with a dual-stream architecture that integrates global cranial morphology with local diagnostic signals from teeth and auditory bullae. The model operates within a hierarchical classification pipeline, processing from genus-level discrimination to species-level resolution. Evaluation on an extensive image dataset encompassing 51 species across 18 genera of Talpidae achieved exceptional accuracy at both the genus (99.6%±0.4%) and species (96.5%±1.3%) levels. This species-level performance substantially exceeded that of single- stream models employing either flat (91.2%±2.3%) or hierarchical (93.9%±2.1%) strategies. To support end-to-end automation, a YOLO-based annotation module was implemented to localize key morphological traits with 97.8% recall, 97.9% precision, and 81.5% mean average precision (mAP@[.50:.95]). Incorporating this module incurred only a marginal reduction of 1.9% in identification accuracy. Thus, HISNET-FF offers a robust and accurate framework that accelerates morphology-based species identification and enables automated taxonomic classification, with strong potential for broader implementation across diverse biological research domains.
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