BRAIN-COMPUTER INTERFACES IN THE MANAGEMENT OF PHANTOM LIMB PAIN: CURRENT CONCEPTS AND EVIDENCE

dc.contributor.authorMuhammad Kalim Raza
dc.contributor.authorAlkov Ruslan Alimjonovich
dc.contributor.authorLutfullaev Khafizullo Zaynullaevich
dc.contributor.authorRuzikulov Xumoyunbek Kuyli ugli
dc.contributor.authorYakubova Khadichakhon Kasymkhonovna
dc.date.accessioned2025-12-29T17:59:49Z
dc.date.issued2025-09-12
dc.description.abstractBrain–Computer Interface (BCI) technology has rapidly advanced, offering promising applications in neuroscience, rehabilitation, and prosthetic control. This review synthesizes recent developments and ethical considerations in BCI, with a focus on motor imagery (MI)-based systems and their role in neurorehabilitation, particularly for stroke and amputee patients. MI-BCI enables users to control external devices through imagined movements, facilitating communication and motor recovery in individuals with motor impairments or paralysis [18, 1]. Rehabilitation systems integrating BCI with robotics and virtual reality have shown efficacy in improving motor function post-stroke, although challenges remain in system usability, clinical validation, and home implementation [7]. Additionally, BCI training has demonstrated potential in reducing phantom limb pain by modulating sensorimotor brain plasticity, offering novel therapeutic avenues for amputees [18, 20]. Ethical aspects of BCI technology encompass user safety, autonomy, privacy, informed consent, and justice, with emerging concerns related to psychological effects and animal research in commercial ventures [3]. The integration of AI and brain-to-brain interfaces further complicates the ethical landscape, necessitating ongoing discourse and policy development. Signal processing techniques, including feature extraction and classification algorithms, are critical for enhancing BCI performance, with deep learning methods gaining prominence [1]. Despite technological progress practical challenges such as electrode attachment, system portability, and real-time multi-intention prediction must be addressed to facilitate daily life applications [2]. In summary, BCI technology holds transformative potential for neuroscience and rehabilitation, yet requires multidisciplinary efforts to optimize technical performance, address ethical concerns, and ensure equitable access. Continued research is essential to refine BCI systems for clinical and commercial use, improve patient outcomes, and guide responsible innovation in this evolving field.
dc.formatapplication/pdf
dc.identifier.urihttps://webofjournals.com/index.php/5/article/view/5034
dc.identifier.urihttps://asianeducationindex.com/handle/123456789/24850
dc.language.isoeng
dc.publisherWeb of Journals Publishing
dc.relationhttps://webofjournals.com/index.php/5/article/view/5034/5071
dc.rightshttps://creativecommons.org/licenses/by-nc-nd/4.0
dc.sourceWeb of Medicine: Journal of Medicine, Practice and Nursing ; Vol. 3 No. 9 (2025): WOM; 40-46
dc.source2938-3765
dc.titleBRAIN-COMPUTER INTERFACES IN THE MANAGEMENT OF PHANTOM LIMB PAIN: CURRENT CONCEPTS AND EVIDENCE
dc.typeinfo:eu-repo/semantics/article
dc.typeinfo:eu-repo/semantics/publishedVersion
dc.typePeer-reviewed Article

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