Adaptive Multimodal Temporal Transformer for Bio Signal Driven Stroke Rehabilitation Prognosis

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Abstract

Stroke rehabilitation requires continuous, individualized assessment of recovery progress to optimize treatment planning. Existing prognosis models often rely on static, single-timepoint predictions and lack adaptive fusion of multi-modal bio-signals, limiting their clinical interpretability and utility. To address these challenges, we propose AMTT-Net , an adaptive multimodal temporal transformer for dynamic stroke rehabilitation prognosis. AMTT-Net integrates wearable biosensor data, video keypoints, and clinical records through an attention-based Adaptive Fusion Module and Trajectory-Aware Prediction Heads to jointly predict continuous recovery trajectories and responder likelihoods under different rehabilitation modalities. Evaluations on the StrokeBalance-Sim dataset demonstrate that AMTT-Net achieves superior performance in both trajectory regression and responder classification tasks, while providing interpretable, patient-specific insights to support personalized rehabilitation strategies.
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Abstract Stroke rehabilitation requires continuous, individualized assessment of recovery progress to optimize treatment planning. Existing prognosis models often rely on static, single-timepoint predictions and lack adaptive fusion of multi-modal bio-signals, limiting their clinical interpretability and utility. To address these challenges, we propose AMTT-Net, an adaptive multimodal temporal transformer for dynamic stroke rehabilitation prognosis. AMTT-Net integrates wearable biosensor data, video keypoints, and clinical records through an attention-based Adaptive Fusion Module and Trajectory-Aware Prediction Heads to jointly predict continuous recovery trajectories and responder likelihoods under different rehabilitation modalities. Evaluations on the StrokeBalance-Sim dataset demonstrate that AMTT-Net achieves superior performance in both trajectory regression and responder classification tasks, while providing interpretable, patient-specific insights to support personalized rehabilitation strategies. Competing Interest Statement The authors have declared no competing interest.

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