Ávila-Gómez Paulo, Vieites-Prado Alba, Correa-Paz Clara, Del Pozo-Filíu Lucía, Palomar-Alonso Nuria, Campos Francisco, López-Arias Esteban
Department of Pathology and Laboratory Medicine, Weill Cornell Medicine, New York, NY, United States.
Brain Plasticity Laboratory, Health Research Institute of Santiago de Compostela (IDIS), Santiago de Compostela, Spain.
Front Pharmacol. 2025 Mar 7;16:1555115. doi: 10.3389/fphar.2025.1555115. eCollection 2025.
Several preclinical assays and clinical trials have found hypothermia as an efficient protective treatment for stroke. However, systemic hypothermia impairs several physiological functions being difficult to implement in acute critical patients. A deeper understanding of the mechanisms underlying the therapeutic effects of hypothermia could inspire new treatments based on the protective effects of cold. Furthermore, this could contribute to the reduction of the side effects associated with it. One of the metabolic landmarks of hypothermia is the overexpression of a small subset of shock proteins while global protein synthesis is reduced. Among these cold-shock proteins, RBM3 (RNA-binding motif protein 3) seems to play a central protective role. In physiological conditions, which is involved in the regulation of protein synthesis. In several models of cerebral diseases, and , RBM3 exhibited the ability to mitigate apoptosis or increase neural proliferation. In stroke models, RBM3 has shown specially promising effects attenuating neural damage and enhancing cell survival. Future prospects should be directed towards the design of efficient strategies to modulate RBM3 levels. This mini-review aims to summarize the progress made in understanding the role of RBM3 in cerebral tissue protection, while encouraging efforts to address research gaps, particularly in its modulation and clinical application.
多项临床前试验和临床试验已发现低温是一种有效的中风保护性治疗方法。然而,全身低温会损害多种生理功能,在急性重症患者中难以实施。对低温治疗作用机制的更深入理解可能会催生基于寒冷保护作用的新疗法。此外,这有助于减少与之相关的副作用。低温的代谢标志之一是一小部分休克蛋白的过度表达,而整体蛋白质合成减少。在这些冷休克蛋白中,RBM3(RNA结合基序蛋白3)似乎发挥着核心保护作用。在生理条件下,它参与蛋白质合成的调节。在几种脑部疾病模型中,RBM3表现出减轻细胞凋亡或增加神经增殖的能力。在中风模型中,RBM3在减轻神经损伤和提高细胞存活率方面显示出特别有前景的效果。未来的研究方向应是设计调节RBM3水平的有效策略。这篇综述旨在总结在理解RBM3在脑组织保护中的作用方面取得的进展,同时鼓励努力填补研究空白,特别是在其调节和临床应用方面。