Chong Zhao Zhong, Souayah Nizar
Department of Neurology, New Jersey Medical School, Rutgers University, 185 S. Orange Ave, Newark, NJ 07103, USA.
Department of Neurology, New Jersey Medical School, Rutgers University, 90 Bergen Street DOC 8100, Newark, NJ 07101, USA.
Biomedicines. 2024 Oct 15;12(10):2341. doi: 10.3390/biomedicines12102341.
Radixin is an ERM family protein that includes radixin, moesin, and ezrin. The importance of ERM family proteins has been attracting more attention, and studies on the roles of ERM in biological function and the pathogenesis of some diseases are accumulating. In particular, we have found that radixin is the most dramatically changed ERM protein in elevated glucose-treated Schwann cells.
We systemically review the literature on ERM, radixin in focus, and update the roles of radixin in regulating cell morphology, interaction, and cell signaling pathways. The potential of radixin as a therapeutic target in neurodegenerative diseases and cancer was also discussed.
Radixin research has focused on its cell functions, activation, and pathogenic roles in some diseases. Radixin and other ERM proteins maintain cell shape, growth, and motility. In the nervous system, radixin has been shown to prevent neurodegeneration and axonal growth. The activation of radixin is through phosphorylation of its conserved threonine residues. Radixin functions in cell signaling pathways by binding to membrane proteins and relaying the cell signals into the cells. Deficiency of radixin has been involved in the pathogenic process of diseases in the central nervous system and diabetic peripheral nerve injury. Moreover, radixin also plays a role in cell growth and drug resistance in multiple cancers. The trials of therapeutic potential through radixin modulation have been accumulating. However, the exact mechanisms underlying the roles of radixin are far from clarification.
Radixin plays various roles in cells and is involved in developing neurodegenerative diseases and many types of cancers. Therefore, radixin may be considered a potential target for developing therapeutic strategies for its related diseases. Further elucidation of the function and the cell signaling pathways that are linked to radixin may open the avenue to finding novel therapeutic strategies for diseases in the nervous system and other body systems.
根蛋白是ERM家族蛋白之一,ERM家族还包括埃兹蛋白和膜突蛋白。ERM家族蛋白的重要性日益受到关注,关于ERM在生物学功能及某些疾病发病机制中作用的研究不断积累。特别是,我们发现根蛋白是高糖处理的雪旺细胞中变化最为显著的ERM蛋白。
我们系统回顾了关于ERM尤其是根蛋白的文献,并更新了根蛋白在调节细胞形态、相互作用及细胞信号通路方面的作用。还讨论了根蛋白作为神经退行性疾病和癌症治疗靶点的潜力。
根蛋白的研究聚焦于其细胞功能、激活方式以及在某些疾病中的致病作用。根蛋白和其他ERM蛋白维持细胞形状、生长及运动性。在神经系统中,根蛋白已被证明可预防神经退行性变和轴突生长。根蛋白的激活是通过其保守苏氨酸残基的磷酸化。根蛋白通过与膜蛋白结合并将细胞信号传递到细胞内来发挥细胞信号通路中的作用。根蛋白缺乏参与了中枢神经系统疾病和糖尿病周围神经损伤的致病过程。此外,根蛋白在多种癌症的细胞生长和耐药性方面也发挥作用。通过调节根蛋白进行治疗潜力的试验不断增加。然而,根蛋白作用的确切机制远未阐明。
根蛋白在细胞中发挥多种作用,参与神经退行性疾病和多种癌症的发生发展。因此,根蛋白可能被视为针对其相关疾病开发治疗策略的潜在靶点。进一步阐明与根蛋白相关的功能和细胞信号通路可能为寻找神经系统及其他身体系统疾病的新型治疗策略开辟道路。