Adaptive Personalized Multimodal AI For Longitudinal Stress Monitoring Using EEG, HRV And EDA

Stress is a highly individualized and dynamic psychophysiological response, making reliable continuous monitoring challenging.Existing artificial intelligence approaches to stress detection have demonstrated the usefulness of physiological and neural signals, including electrodermal activity (EDA), heart rate variability (HRV), and electroencephalography (EEG).However, many existing approaches rely on population-level models or limited personalization, while longitudinal validation and adaptive modeling remain comparatively underexplored.This research proposes an adaptive, personalized AI framework for longitudinal stress monitoring by integrating complementary neural and physiological signals from EEG, HRV, and EDA.The proposed framework will initially establish an individual's baseline characteristics and subsequently identify deviations from their personal baseline rather than relying solely on generalized stress patterns across individuals.Machine learning techniques will be investigated for multimodal feature fusion and adaptive model updating as additional individual data becomes available.The study will compare the performance of conventional population-level models with personalized and progressively adaptive models using appropriate evaluation metrics.The research aims to determine whether incorporating individual baseline characteristics and continuous adaptation can improve the reliability and generalizability of stress monitoring.The proposed framework is intended as a foundation for future noninvasive, personalized, and wearable AI-based stressmonitoring systems, while addressing current challenges associated with inter-individual variability, multimodal integration, and longitudinal assessment.