Fractal Phototherapy in Maximizing Retina and Brain Plasticity.

Q3 Neuroscience Advances in neurobiology Pub Date : 2024-01-01 DOI:10.1007/978-3-031-47606-8_31
Marina V Zueva, Natalia V Neroeva, Anastasia N Zhuravleva, Anna N Bogolepova, Vladislav V Kotelin, Denis V Fadeev, Irina V Tsapenko
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Abstract

The neuroplasticity potential is reduced with aging and impairs during neurodegenerative diseases and brain and visual system injuries. This limits the brain's capacity to repair the structure and dynamics of its activity after lesions. Maximization of neuroplasticity is necessary to provide the maximal CNS response to therapeutic intervention and adaptive reorganization of neuronal networks in patients with degenerative pathology and traumatic injury to restore the functional activity of the brain and retina.Considering the fractal geometry and dynamics of the healthy brain and the loss of fractality in neurodegenerative pathology, we suggest that the application of self-similar visual signals with a fractal temporal structure in the stimulation therapy can reactivate the adaptive neuroplasticity and enhance the effectiveness of neurorehabilitation. This proposition was tested in the recent studies. Patients with glaucoma had a statistically significant positive effect of fractal photic therapy on light sensitivity and the perimetric MD index, which shows that methods of fractal stimulation can be a novel nonpharmacological approach to neuroprotective therapy and neurorehabilitation. In healthy rabbits, it was demonstrated that a long-term course of photostimulation with fractal signals does not harm the electroretinogram (ERG) and retina structure. Rabbits with modeled retinal atrophy showed better dynamics of the ERG restoration during daily stimulation therapy for a week in comparison with the controls. Positive changes in the retinal function can indirectly suggest the activation of its adaptive plasticity and the high potential of stimulation therapy with fractal visual stimuli in a nonpharmacological neurorehabilitation, which requires further study.

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分形光疗法在最大程度上提高视网膜和大脑的可塑性。
神经可塑性潜能会随着年龄的增长而减弱,并在神经退行性疾病、大脑和视觉系统损伤时受损。这限制了大脑在病变后修复其结构和动态活动的能力。考虑到健康大脑的分形几何和动态以及神经退行性病变中分形的缺失,我们认为在刺激疗法中应用具有分形时间结构的自相似视觉信号可以重新激活适应性神经可塑性,提高神经康复的效果。这一观点在最近的研究中得到了验证。分形光疗法对青光眼患者的光敏感性和周边MD指数有统计学意义上的积极影响,这表明分形刺激方法可以成为神经保护疗法和神经康复的一种新型非药物疗法。研究证明,在健康兔子身上长期使用分形信号进行光刺激不会损害视网膜电图(ERG)和视网膜结构。与对照组相比,患有模型视网膜萎缩的兔子在为期一周的每日刺激治疗中,视网膜电图(ERG)的恢复动态更好。视网膜功能的积极变化间接表明其适应性可塑性被激活,分形视觉刺激疗法在非药物神经康复方面具有很大潜力,这需要进一步研究。
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来源期刊
Advances in neurobiology
Advances in neurobiology Neuroscience-Neurology
CiteScore
2.80
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0.00%
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0
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