Jul 2026· arXiv.org· pp. 1234-1243· 9 citations· 66 references
Computer Science
TL;DR
A unified tokenization framework for heterogeneous 3D modalities in pain recognition that provides a single processing pipeline across behavioral and brain-activity 3D data, without requiring separate architectures for each modality or handcrafted inductive biases is introduced.
Abstract
Pain is a complex and pervasive phenomenon affecting a large percentage of the population, and accurate assessment is essential for effective clinical management and intervention. Computational pain recognition systems enable continuous monitoring, support clinical decision-making, and help mitigate pain-related distress and functional decline. This study introduces a unified tokenization framework for heterogeneous 3D modalities in pain recognition that provides a single processing pipeline across behavioral and brain-activity 3D data, without requiring separate architectures for each modality or handcrafted inductive biases. The framework preserves spatial, temporal, and time–frequency structure while mapping diverse inputs into a shared token space. Extensive experiments show that the proposed approach effectively processes facial videos and fNIRS data in both raw-signal and spectrogram-based representations. On the AI4Pain benchmark dataset, the proposed framework achieves state-of-the-art performance while maintaining high computational efficiency and enabling real-time assessment on both GPU and CPU hardware.
Automated facial pain recognition could support future monitoring tools for patients who cannot reliably self-report pain. Existing approaches either neglect temporal dynamics by processing single frames or employ computationally demanding models. This paper presents AlamViT, a computationally efficient video model tha...
Alya Alabdouli, Tamer Rabie, Mohammed Baziyad et al.· Mathematics· 0 citations
Reliable pain assessment remains a major challenge in clinical care, especially for patients who cannot communicate their symptoms effectively. This paper presents a subject-independent, feature-based framework for classifying multimodal biosignals into three states: No Pain, Pain Arm, and Pain Hand using the AI4Pain 2...
Saima Bibi, Jamila Akhter, Noman Naseer et al.· 2026 14th International Conf...· 0 citations
Pain assessment traditionally relies on self-report measures, limiting its applicability to non-verbal patients and individuals with communication impairments. While prior studies have focused on pain detection and intensity estimation, pain location classification from physiological signals remains largely unexplored....
Tahera Hossain, Shahera Hossain, Keiko Yamashita et al.· 2026 14th International Conf...· 0 citations
Empirical results validate that bridging high-frequency local textures with low-frequency global contextual relationships minimizes predictive variance, offering an accurate, stable, and scalable computational screening solution for automated clinical environments.
B. Anjali, S. Gopinathan· International Journal on Inf...· 0 citations
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