热休克蛋白
炎症
自噬
蛋白质聚集
细胞生物学
伴侣(临床)
神经科学
热休克蛋白27
生物
癌症研究
医学
热休克蛋白70
免疫学
细胞凋亡
病理
生物化学
基因
作者
Marta Chierichetti,Riccardo Cristofani,V. Crippa,Veronica Ferrari,Marta Cozzi,Elena Casarotto,Paola Pramaggiore,Laura Cornaggia,Guglielmo Patelli,Ali Mohamed,Margherita Piccolella,M. Galbiati,P. Rusmini,B. Tedesco,Angelo Poletti
标识
DOI:10.4103/nrr.nrr-d-24-00517
摘要
Abstract Heat shock protein family B (small) member 8 (HSPB8) is a 22 kDa ubiquitously expressed protein belonging to the family of small heat shock proteins. HSPB8 is involved in various cellular mechanisms mainly related to proteotoxic stress response and in other processes such as inflammation, cell division, and migration. HSPB8 binds misfolded clients to prevent their aggregation by assisting protein refolding or degradation through chaperone-assisted selective autophagy. In line with this function, the pro-degradative activity of HSPB8 has been found protective in several neurodegenerative and neuromuscular diseases characterized by protein misfolding and aggregation. In cancer, HSPB8 has a dual role being capable of exerting either a pro-or an anti-tumoral activity depending on the pathways and factors expressed by the model of cancer under investigation. Moreover, HSPB8 exerts a protective function in different diseases by modulating the inflammatory response, which characterizes not only neurodegenerative diseases, but also other chronic or acute conditions affecting the nervous system, such as multiple sclerosis and intracerebellar hemorrhage. Of note, HSPB8 modulation may represent a therapeutic approach in other neurological conditions that develop as a secondary consequence of other diseases. This is the case of cognitive impairment related to diabetes mellitus, in which HSPB8 exerts a protective activity by assuring mitochondrial homeostasis. This review aims to summarize the diverse and multiple functions of HSPB8 in different pathological conditions, focusing on the beneficial effects of its modulation. Drug-based and alternative therapeutic approaches targeting HSPB8 and its regulated pathways will be discussed, emphasizing how new strategies for cell and tissue-specific delivery represent an avenue to advance in disease treatments.
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