端粒作为iPSC衰老的标志:在干细胞和细胞重编程过程中端粒动力学的综述。

IF 12.5 1区 医学 Q1 CELL BIOLOGY
Carlota Tavares-Marcos , Magda Correia , Bruno Bernardes de Jesus
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引用次数: 0

摘要

端粒是染色体的保护端,是组织修复和再生的关键。端粒缩短与衰老和年龄相关疾病有关,而过度的端粒酶活性可能支持组织再生或转化。端粒和端粒酶的一些功能可能是由其在干细胞形成过程中的重要作用介导的。活跃的端粒酶,以及随后的端粒酶依赖的端粒延伸,支持干细胞自我更新和多能性-对组织愈合至关重要。在细胞重编程过程中,分化的细胞转化为类似胚胎干细胞的诱导多能干细胞(iPSCs)。在iPSC衍生过程中,端粒长度被重置,增强了iPSC的再生潜能。在这个过程中,端粒酶的不完全激活和端粒的延伸会导致基因组的不稳定和/或细胞功能的中断。了解端粒、端粒酶和干细胞之间的复杂关系,在设计针对退行性疾病的新型细胞疗法或解锁延缓衰老的策略时可能至关重要。在这里,我们探讨了最近的参考书目链接这些领域,提高他们的重要性的认识,当设计新的突破健康和长寿。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Telomeres as hallmarks of iPSC aging: A review on telomere dynamics during stemness and cellular reprogramming
Telomeres, the protective ends of chromosome, are key to tissue repair and regeneration. Telomere shortening is linked to aging and age-related disorders, while excessive telomerase activity may support tissue regeneration or transformation. Some of the functions of telomeres and telomerase may be mediated by its important role in the process of stemness. Active telomerase, and subsequent telomerase-dependent telomere extension, supports stem-cells self-renewal and pluripotency - essential for tissue healing. During cellular reprogramming, differentiated cells are converted into induced pluripotent stem cells (iPSCs), which resemble embryonic stem cells. During iPSC derivation, telomere length is reset, enhancing iPSCs’ regenerative potential. During this process, incomplete telomerase activation and telomere extension can lead to genomic instability and/or haltered cell functionality. Understanding the intricate relation of telomeres, telomerase and stemness may be critical when designing novel cell-based therapies targeting degenerative diseases or to unlock strategies to delay aging. Here, we explore the recent bibliography linking these areas, raising awareness of their important when designing novel breakthroughs in health and longevity.
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来源期刊
Ageing Research Reviews
Ageing Research Reviews 医学-老年医学
CiteScore
19.80
自引率
2.30%
发文量
216
审稿时长
55 days
期刊介绍: With the rise in average human life expectancy, the impact of ageing and age-related diseases on our society has become increasingly significant. Ageing research is now a focal point for numerous laboratories, encompassing leaders in genetics, molecular and cellular biology, biochemistry, and behavior. Ageing Research Reviews (ARR) serves as a cornerstone in this field, addressing emerging trends. ARR aims to fill a substantial gap by providing critical reviews and viewpoints on evolving discoveries concerning the mechanisms of ageing and age-related diseases. The rapid progress in understanding the mechanisms controlling cellular proliferation, differentiation, and survival is unveiling new insights into the regulation of ageing. From telomerase to stem cells, and from energy to oxyradical metabolism, we are witnessing an exciting era in the multidisciplinary field of ageing research. The journal explores the cellular and molecular foundations of interventions that extend lifespan, such as caloric restriction. It identifies the underpinnings of manipulations that extend lifespan, shedding light on novel approaches for preventing age-related diseases. ARR publishes articles on focused topics selected from the expansive field of ageing research, with a particular emphasis on the cellular and molecular mechanisms of the aging process. This includes age-related diseases like cancer, cardiovascular disease, diabetes, and neurodegenerative disorders. The journal also covers applications of basic ageing research to lifespan extension and disease prevention, offering a comprehensive platform for advancing our understanding of this critical field.
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