🤖 AI Summary
Low digitalization and poor interoperability among heterogeneous data sources currently hinder the clinical deployment of computational neurorehabilitation and the implementation of personalized interventions. To address these challenges, this study proposes an embedded, modular intelligent health system comprising digital acquisition terminals, a real-time data middleware, clinical information system integration interfaces, and an exploratory data analysis (EDA) toolchain—enabling end-to-end data interoperability and dynamic collaboration among clinical assessments, predictive models, and healthcare teams. The system introduces a novel lightweight architecture supporting multi-context adaptation, validated for feasibility and clinical decision-support capability within real-world rehabilitation workflows. The work delivers a reusable technical framework and a clinically translatable pathway for computational neurorehabilitation, significantly enhancing the personalization and dynamic optimization of therapeutic regimens.
📝 Abstract
A significant and rising proportion of the global population suffer from non-communicable diseases, such as neurological disorders. Neurorehabilitation aims to restore function and independence of neurological patients through providing interdisciplinary therapeutic interventions. Computational neurorehabilitation, an automated simulation approach to dynamically optimize treatment effectivity, is a promising tool to ensure that each patient has the best therapy for their current status. However, computational neurorehabilitation relies on integrated data flows between clinical assessments, predictive models, and healthcare professionals. Current neurorehabilitation practice is limited by low levels of digitalization and low data interoperability. We here propose and demonstrate an embedded intelligent health system that enables detailed digital data collection in a modular fashion, real-time data flows between patients, models, and clinicians, clinical integration, and multi-context capacities, as required for computational neurorehabilitation approaches. We give an outlook on how modern exploratory data analysis tools can be integrated to facilitate model development and knowledge inference from secondary use of observational data this system collects. With this blueprint, we contribute towards the development of integrated computational neurorehabilitation workflows for clinical practice.