Institute of Physical Education and Training, Capital University of Physical Education and Sports, Beijing, China.
Basic Department, Dezhou Vocational and Technical College, Dezhou, China.
Front Endocrinol (Lausanne). 2024 Aug 22;15:1433750. doi: 10.3389/fendo.2024.1433750. eCollection 2024.
Throughout our evolutionary history, physical activity has played a significant role in shaping our physiology. Advances in exercise science have further reinforced this concept by highlighting how exercise can change gene expression and molecular signaling to achieve various beneficial outcomes. Several studies have shown that exercise can alter neuronal functions to prevent neurodegenerative conditions like Parkinson's and Alzheimer's diseases. However, individual genotypes, phenotypes, and varying exercise protocols hinder the prescription of exercise as standard therapy. Moreover, exercise-induced molecular signaling targets can be double-edged swords, making it difficult to use exercise as the primary candidate for beneficial effects. For example, activating PGC-1 alpha and BDNF through exercise could produce several benefits in maintaining brain health, such as plasticity, neuronal survival, memory formation, cognition, and synaptic transmission. However, higher expression of BDNF might play a negative role in bipolar disorder. Therefore, further understanding of a specific mechanistic approach is required. This review focuses on how exercise-induced activation of these molecules could support brain health and discusses the potential underlying mechanisms of the effect of exercise-induced PGC-1 alpha and BDNF on brain health.
在我们的进化历史中,身体活动在塑造我们的生理学方面发挥了重要作用。运动科学的进步进一步强化了这一概念,强调了运动如何改变基因表达和分子信号,以实现各种有益的结果。一些研究表明,运动可以改变神经元功能,预防帕金森病和阿尔茨海默病等神经退行性疾病。然而,个体基因型、表型和不同的运动方案阻碍了将运动作为标准治疗的处方。此外,运动诱导的分子信号靶点可能是双刃剑,使得运动难以成为有益效果的主要候选者。例如,通过运动激活 PGC-1α和 BDNF 可以在维持大脑健康方面产生多种益处,如可塑性、神经元存活、记忆形成、认知和突触传递。然而,BDNF 的更高表达可能在双相情感障碍中发挥负面作用。因此,需要进一步了解特定的机制方法。本综述重点讨论了这些分子的运动诱导激活如何支持大脑健康,并讨论了运动诱导的 PGC-1α和 BDNF 对大脑健康影响的潜在机制。