Stroke, traumatic brain injury, and multiple sclerosis are neurological disorders that
cause a lot of long-term disability and put a lot of strain on society and the
economy. Rehabilitation is necessary for regaining functionality. But standard
practices often don't allow for much personalization, intensity, or accessibility.
Artificial intelligence (AI) and machine learning (ML) have recently emerged as
promising instruments for enhancing neurological rehabilitation by facilitating
more accurate evaluation, tailored therapy planning, and continuous monitoring of
patient progress. The goal of this review is to give an overview of how AI is
currently being used in neurological rehabilitation. It includes things like telerehabilitation,
brain-computer interfaces, robotic-assisted therapy, and motor
recovery after a stroke. The research demonstrates that AI-driven interventions can
enhance therapy intensity, forecast recovery outcomes, and utilize objective
assessments of motor and cognitive function. Telerehabilitation platforms make it
easier to get care outside of the clinic. Robotic systems and AI-enhanced virtual
environments, on the other hand, allow patients to train in ways customized to their
needs. Even with these changes, there are still problems with algorithm
transparency, data privacy, and guaranteeing fair access for everyone, including in
clinical practice. Our goal in this review is to demonstrate how AI and ML can
revolutionize neurological rehabilitation by providing scalable, individualized
approaches that improve clinical results. Long-lasting effectiveness, standardization
procedures, and useful workflow integration should be the main topics of future
research.
Keywords: artificial intelligence, machine learning, neurological rehabilitation,
stroke recovery, robotic therapy, brain-computer interface, tele-rehabilitationartificial intelligence, machine learning, neurological rehabilitation,
stroke recovery, robotic therapy, brain-computer interface, tele-rehabilitation
