Narrative review of AI-driven stroke rehabilitation systems and motor learning facilitation
This narrative review evaluates AI-driven stroke rehabilitation systems, focusing on their mechanisms for facilitating human motor learning processes. The scope encompasses the types of learning facilitated by these technologies and the prevalence of explicit modeling of therapist human motor learning within control frameworks. The authors observe that many reviewed systems appear to primarily facilitate use-dependent and sensory-prediction error-based learning, with limited facilitation of reinforcement learning or strategy-based learning. Furthermore, explicit modeling of therapist human motor learning within control frameworks appears relatively rare among the systems discussed.
The authors identify several gaps and limitations inherent to this narrative synthesis. Specific clinical outcomes, absolute numbers, p-values, confidence intervals, and adverse events were not reported in the source material. Consequently, the review does not provide quantitative effect sizes or statistical certainty regarding the efficacy or safety of these interventions. The lack of reported data on tolerability, discontinuations, and serious adverse events limits the ability to draw definitive conclusions on patient safety.
In terms of practice relevance, interpreting the reviewed rehabilitation systems through this lens highlights opportunities for therapist-inspired multi-process controllers, improved benchmarking with clinical scales, longitudinal retention studies, and AI-driven closed-loop neuromodulation to enhance personalization, adaptability, and outcomes. These suggestions aim to support clinical translation into routine practice. However, clinicians should recognize that the evidence base for these specific AI applications remains descriptive rather than quantitative, and further research is needed to validate these concepts in routine care.