Dyakonova Varvara, Mezheritskiy Maxim, Boguslavsky Dmitri, Dyakonova Taisia, Chistopolsky Ilya, Ito Etsuro, Zakharov Igor
Koltzov Institute of Developmental Biology of the Russian Academy of Sciences, Moscow, Russia.
Department of Biology, Waseda University, Tokyo, Japan.
Front Behav Neurosci. 2022 Jun 28;16:928093. doi: 10.3389/fnbeh.2022.928093. eCollection 2022.
Benefits of physical exercise for brain functions are well documented in mammals, including humans. In this review, we will summarize recent research on the effects of species-specific intense locomotion on behavior and brain functions of different invertebrates. Special emphasis is made on understanding the biological significance of these effects as well as underlying cellular and molecular mechanisms. The results obtained in three distantly related clades of protostomes, Nematodes, Molluscs and Artropods, suggest that influence of intense locomotion on the brain could have deep roots in evolution and wide adaptive significance. In , improved learning, nerve regeneration, resistance to neurodegenerative processes were detected after physical activity; in -facilitation of decision making in the novel environment, in -increased endurance, improved sleep and feeding behavior, in -improved orientation in conspecific phonotaxis, enhanced aggressiveness, higher mating success, resistance to some disturbing stimuli. Many of these effects have previously been described in mammals as beneficial results of running, suggesting certain similarity between distantly-related species. Our hypothesis posits that the above modulation of cognitive functions results from changes in the organism's predictive model. Intense movement is interpreted by the organism as predictive of change, in anticipation of which adjustments need to be made. Identifying the physiological and molecular mechanisms behind these adjustments is easier in experiments in invertebrates and may lead to the discovery of novel neurobiological mechanisms for regulation and correction of cognitive and emotional status.
体育锻炼对大脑功能的益处,在包括人类在内的哺乳动物中已有充分记载。在本综述中,我们将总结近期关于特定物种的剧烈运动对不同无脊椎动物行为和大脑功能影响的研究。特别强调理解这些影响的生物学意义以及潜在的细胞和分子机制。在三个远缘相关的原口动物类群(线虫、软体动物和节肢动物)中获得的结果表明,剧烈运动对大脑的影响可能在进化中有着深厚的根源和广泛的适应性意义。在[具体研究对象1]中,体育活动后检测到学习能力提高、神经再生、对神经退行性过程的抵抗力增强;在[具体研究对象2]中,新环境中的决策能力得到促进,[具体研究对象3]中的耐力增加、睡眠和进食行为改善,[具体研究对象4]中的同种趋声性定向改善、攻击性增强、交配成功率提高、对某些干扰刺激的抵抗力增强。其中许多影响先前在哺乳动物中被描述为跑步的有益结果,这表明远缘相关物种之间存在一定的相似性。我们的假设认为,上述认知功能的调节是由生物体预测模型的变化引起的。剧烈运动被生物体解释为变化的预测信号,为此需要做出调整。在无脊椎动物实验中更容易确定这些调整背后的生理和分子机制,这可能会导致发现调节和纠正认知及情绪状态的新神经生物学机制。