Modern strategies in neurorehabilitation following stroke

Аннотация

Stroke remains one of the leading causes of long-term disability worldwide. Despite advancements in acute stroke management, many survivors experience residual impairments that significantly reduce their quality of life. Modern strategies in neurorehabilitation aim to leverage technological innovations and interdisciplinary approaches to maximize functional recovery. This article reviews the current evidence-based strategies, including robotics, virtual reality, brain-computer interfaces, and tele- rehabilitation, as well as personalized, patient-centered therapy plans. The discussion highlights clinical outcomes, challenges in implementation, and future directions in post-stroke neurorehabilitation. Keywords: Stroke rehabilitation, neuroplasticity, robotics, virtual reality, brain-computer interface, tele- rehabilitation, functional recovery, interdisciplinary care, post-stroke therapy. The American Journal of Medical Sciences and Pharmaceutical Research 16 https://www.theamericanjournals.com/index.php/tajmspr The American Journal of Medical Sciences and Pharmaceutical Research rehabilitation is widely supported by clinical evidence. Introduction: Stroke affects millions of individuals each year and is a primary cause of adult disability globally. While emergency interventions such as thrombolysis and mechanical thrombectomy have improved acute survival rates, the burden of post- RESULTS AND DISCUSSION stroke functional loss remains significant. Modern neurorehabilitation employs an integrated Neurorehabilitation is a critical component of stroke approach that combines traditional therapy with novel care that seeks to promote neuroplasticity and support technological tools and interdisciplinary expertise. the recovery of motor, cognitive, and emotional Robotics allow precise and repetitive movements crucial function. Traditional approaches focused on repetitive for motor learning, while virtual reality provides task training and physical therapy, but the modern immersive environments for cognitive and physical landscape has evolved to include advanced rehabilitation. These tools not only enhance patient technologies and comprehensive, multidisciplinary motivation but also collect real-time data to personalize models of care. This article explores the integration of therapy and track progress. contemporary strategies in neurorehabilitation and Interdisciplinary care—consisting of neurologists, their effectiveness in optimizing post-stroke outcomes physiatrists, therapists, psychologists, and nurses— Literature Review ensures a holistic treatment plan that addresses The foundation of modern neurorehabilitation is built physical, mental, and emotional needs. Each discipline on the principles of neuroplasticity—the brain’s ability contributes to a shared recovery goal, resulting in better to reorganize and form new neural connections after coordination and improved outcomes. injury. Early work by Langhorne et al. (2011) and A retrospective cohort study conducted in an Australian Pollock et al. (2014) emphasized that coordinated, regional hospital investigated the factors contributing to early, and intensive rehabilitation results in improved improved functional outcomes following stroke functional outcomes. The EXCITE trial (2006) rehabilitation. The study included 582 patients admitted demonstrated that constraint-induced movement between 2010 and 2020, with a median age of 75 years. therapy (CIMT) leads to significant improvement in Of these, 54.1% achieved a relative functional gain (RFG) upper limb function in patients beyond the acute of ≥0.5, and 52.2% achieved Functional Independence phase. Measure (FIM) efficiency of ≥1. The study found that a Technological interventions have gained attention in longer delay in starting rehabilitation was associated recent years. Robotics are now used to deliver high- with a lower likelihood of achieving RFG success (Odds frequency, task-specific training with high precision. Ratio [OR]: 0.85, 95% Confidence Interval [CI]: 0.78– Mehrholz et al. (2018) confirmed that robotic-assisted 0.93, P < 0.001) and FIM efficiency success (OR: 0.89, gait training significantly improves ambulation in 95% CI: 0.82–0.97, P = 0.010). These findings underscore stroke survivors. Similarly, virtual reality (VR) therapy the importance of timely initiation of rehabilitation to has been found effective in enhancing patient optimize functional recovery. engagement and neurocognitive recovery (Laver et al., Another study evaluated the combination of a wearable 2017). device-assisted system (WEAR) and conventional Brain-computer interfaces (BCIs) and neurofeedback therapy for post-stroke rehabilitation. The study systems are cutting-edge technologies enabling included 100 patients with acute and subacute stroke patients with severe disabilities to interact with who were randomly assigned to receive either WEAR external environments through brain signals. combined with conventional therapy or co