Crocetin Delays Brain and Body Aging by Increasing Cellular Energy Levels in Aged C57BL/6J Mice

Sushil Choudhary, Vishnu Kumar, Kuhu Sharma, Abhishek Gour, Ashish Sahrawat, Anshika Jotshi, Diksha Manhas, Utpal Nandi, Sandip B. Bharate, Zabeer Ahmed, Ajay Kumar
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Abstract

Aging is usually accompanied by mitochondrial dysfunction, reduced energy levels, and cell death in the brain and other tissues. Mitochondria play a crucial role in maintaining cellular energy through oxidative phosphorylation (OXPHOS). However, OXPHOS is impaired as the mitochondrial oxygen supply decreases with age. We explored whether pharmacologically increased oxygen diffusion by crocetin can restore OXPHOS and help delay the aging of the brain and other vital organs. We found that aged mice treated with crocetin for four months displayed significantly improved memory behavior, neuromuscular coordination, and ATP and NAD+ levels in the brain and other vital organs, leading to an increased median life span. The transcriptomic analysis of hippocampi from crocetin-treated mice revealed that enhanced brain energy level was caused by the upregulation of genes linked to OXPHOS, and their expression was close to that in young mice. The chronic treatment of aged astrocytes also showed improved mitochondrial membrane potential and energy state of the cells. Moreover, chronic treatment with crocetin did not cause any oxidative stress. Our data suggest that restoring OXPHOS and the normal energy state of the cell can delay aging and enhance longevity. Therefore, molecules such as crocetin should be further explored to treat age-related diseases.

Abstract Image

藏红花酸通过提高老年 C57BL/6J 小鼠的细胞能量水平延缓大脑和身体衰老
衰老通常伴随着线粒体功能障碍、能量水平降低以及大脑和其他组织的细胞死亡。线粒体通过氧化磷酸化(OXPHOS)在维持细胞能量方面发挥着至关重要的作用。然而,随着年龄的增长,线粒体的供氧量减少,OXPHOS 的作用也随之减弱。我们探讨了通过药理学方法增加西番莲素的氧扩散是否能恢复 OXPHOS 并帮助延缓大脑和其他重要器官的衰老。我们发现,使用西西替酯治疗四个月的老年小鼠在记忆行为、神经肌肉协调性、大脑和其他重要器官的 ATP 和 NAD+ 水平等方面都有明显改善,从而延长了小鼠的中位寿命。克罗西汀治疗小鼠海马的转录组分析表明,大脑能量水平的提高是由与氧合磷酸酶相关的基因上调引起的,这些基因的表达与年轻小鼠接近。对老年星形胶质细胞的慢性治疗也显示出线粒体膜电位和细胞能量状态的改善。此外,用鳄梨素进行慢性治疗不会引起任何氧化应激。我们的数据表明,恢复细胞的 OXPHOS 和正常能量状态可以延缓衰老,延年益寿。因此,应该进一步探索用鳄梨素等分子来治疗与年龄有关的疾病。
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