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This paper introduces a Transformer-based framework to predict personalized, post-intervention physiological responses (HR, HRV, BBI) using wearable sensor data. The model predicts multi-horizon trajectories of percent change from baseline and direction-of-change calls. Results on user-tagged intervention data suggest the feasibility of personalized post-intervention prediction.
Knowing how your body *actually* responds to stress interventions is now one step closer, thanks to personalized models that learn from your wearable data.
Consumer wearables enable continuous measurement of physiological data related to stress and recovery, but turning these streams into actionable, personalized stress-management recommendations remains a challenge. In practice, users often do not know how a given intervention, defined as an activity intended to reduce stress, will affect heart rate (HR), heart rate variability (HRV), or inter-beat intervals (BBI) over the next 15 to 120 minutes. We present a framework that predicts post-intervention trajectories and the direction of change for these physiological indicators across time windows. Our methodology combines a Transformer model for multi-horizon trajectories of percent change relative to a pre-intervention baseline, direction-of-change calls (positive, negative, or neutral) at each horizon, and an empirical study using wearable sensor data overlaid with user-tagged events and interventions. This proof of concept shows that personalized post-intervention prediction is feasible. We encourage future integration into stress-management tools for personalized intervention recommendations tailored to each person's day following further validation in larger studies and, where applicable, appropriate regulatory review.