BIOTECHNOLOGICALLY PRODUCED NEUROSTIMULANTS MAY CONTRIBUTE TO PROLONGED IMPROVEMENTS IN MOTOR PERFORMANCE: A NARRATIVE REVIEW.

Q4 Medicine
Georgian medical news Pub Date : 2025-04-01
T Petrosyan
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引用次数: 0

Abstract

The search for effective agents to enhance motor performance and accelerate neurorehabilitation has increasingly focused on neurostimulants-compounds that enhance neural excitability, synaptic transmission, and plasticity. This chapter explores the promising role of biotechnologically produced neurostimulants, particularly bacterial melanin synthesized in Armenia, in supporting functional recovery and sustained improvements in motor output. Unlike traditional pharmacological neurostimulants such as modafinil, amantadine, or methylphenidate, which primarily target monoaminergic systems, bacterial melanin demonstrates neuroprotective, neuroregenerative, and electrophysiologically stimulating properties across various CNS regions, including the substantia nigra. Emerging experimental data indicate that bacterial melanin increases spontaneous and evoked neuronal activity, potentiates dopaminergic transmission, and supports axonal integrity post-injury-features that align with modern neurorehabilitation goals. This chapter critically examines the physiological basis and translational potential of such novel neurostimulants by integrating findings from optogenetic stimulation, pharmacological trials, and neurobehavioral rehabilitation paradigms. The convergence of microbial biotechnology and neurostimulant pharmacology may redefine clinical approaches to motor dysfunction and neuroplastic recovery following central nervous system injury.

生物技术生产的神经兴奋剂可能有助于运动表现的长期改善:叙述性回顾。
对增强运动表现和加速神经康复的有效药物的研究越来越多地集中在神经兴奋剂上,即增强神经兴奋性、突触传递和可塑性的化合物。本章探讨了生物技术生产的神经兴奋剂,特别是在亚美尼亚合成的细菌黑色素,在支持功能恢复和持续改善运动输出方面的有希望的作用。与莫达非尼、金刚烷胺或哌醋甲酯等主要针对单胺能系统的传统药理学神经兴奋剂不同,细菌黑色素在包括黑质在内的各种中枢神经系统中表现出神经保护、神经再生和电生理刺激特性。新出现的实验数据表明,细菌黑色素增加自发和诱发的神经元活动,增强多巴胺能传递,并支持损伤后轴突完整性-与现代神经康复目标一致的特征。本章通过整合光遗传刺激、药理学试验和神经行为康复范例的研究结果,批判性地考察了这种新型神经兴奋剂的生理基础和转化潜力。微生物生物技术和神经兴奋剂药理学的融合可能重新定义中枢神经系统损伤后运动功能障碍和神经可塑性恢复的临床方法。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Georgian medical news
Georgian medical news Medicine-Medicine (all)
CiteScore
0.60
自引率
0.00%
发文量
207
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