Editorial: Biometric Recognition—Latest Advances and Prospects
1. Research Highlights
1.1. Face Recognition and Animation
- Ref. [1] introduces a prior structure-assisted network for identity-preserving face animation, leveraging segmentation and landmarks to enhance realism under motion transfer.
- Ref. [2] addresses asymmetric matching across heterogeneous models (e.g., ResNet vs. Transformer) using learnable anchors that are critical for edge-device deployment.
1.2. Ocular Biometrics
- Ref. [3] adapts the Segment Anything Model with a novel “IrisAdapter” for high-precision segmentation, overcoming domain gaps between natural and iris images.
- Ref. [4] achieves efficient multi-modal ocular segmentation (periocular/sclera/iris/pupil) in noisy environments via shape priors and cross-attention.
- Ref. [5] produces a pioneering VR periocular dataset with periocular images acquired in VR environments, identities and abundant emotion annotations, enabling implicit authentication and affective computing studies.
1.3. Noise-Robust Authentication
- Ref. [6] mitigate flicker noise and IR reflections in periocular images captured by head-mounted display devices, achieving 6.39% EER via reflection removal and SE blocks.
- Ref. [7] enhance voice-based two-factor authentication (2FA) with a GMM-based web solution, optimizing thresholds for varying acoustic conditions.
1.4. Emerging Modalities and Applications
- Ref. [8] design an open-environment multi-spectral palm vein system with supervised feature learning (<1% EER).
- Ref. [9] produce ultra-wideband (UWB) based real-time leg movement recognition (95% accuracy), enabling seamless human–robot interactions.
- Ref. [10] combine the CNN and Transformer (CrowdCCT) for weakly supervised crowd counting, excelling in hybrid feature fusion.
1.5. Security and Ethical Considerations
- Ref. [11] critically review ML vulnerabilities in biometrics (e.g., data poisoning, deepfakes), urging defenses against adversarial threats.
2. Future Outlook
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- Cross-spectral integration (e.g., visible/infrared/multi-spectral fusion) will drive seamless authentication in non-cooperative environments.
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- Lightweight, explainable AI must evolve to balance accuracy with ethical imperatives, addressing bias, privacy, and adversarial threats.
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- Metaverse-ready biometrics will require novel sensors and generative models for immersive identity verification.
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- Ethical guardianship must embed privacy-by-design principles and rigorous ethical frameworks in future advances to prevent the misuse of sensitive biological data.
Acknowledgments
Conflicts of Interest
References
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Wang, Y.; He, Z.; Wang, C.; Wei, J.; Ren, M. Editorial: Biometric Recognition—Latest Advances and Prospects. Electronics 2025, 14, 3108. https://doi.org/10.3390/electronics14153108
Wang Y, He Z, Wang C, Wei J, Ren M. Editorial: Biometric Recognition—Latest Advances and Prospects. Electronics. 2025; 14(15):3108. https://doi.org/10.3390/electronics14153108
Chicago/Turabian StyleWang, Yunlong, Zhaofeng He, Caiyong Wang, Jianze Wei, and Min Ren. 2025. "Editorial: Biometric Recognition—Latest Advances and Prospects" Electronics 14, no. 15: 3108. https://doi.org/10.3390/electronics14153108
APA StyleWang, Y., He, Z., Wang, C., Wei, J., & Ren, M. (2025). Editorial: Biometric Recognition—Latest Advances and Prospects. Electronics, 14(15), 3108. https://doi.org/10.3390/electronics14153108