线粒体Ca2+水平降低代谢性疾病和心肌病的发病率

R. Upadhyay
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引用次数: 3

摘要

线粒体是产生ATP的重要细胞器,ATP是所有生理和代谢活动的唯一能量分子。它提供细胞能量,并协助信号传导、细胞代谢、细胞分化、细胞存活和其他细胞特异性功能。钙的摄取通过电压依赖性阴离子通道通过线粒体外膜进行。电化学梯度和平衡形成后,双方线粒体功能恢复正常。它在氧化磷酸化过程中得到维持。因此,缓冲细胞质Ca2+水平调节线粒体效应功能。Ca2+转运到线粒体调节其代谢并引起线粒体膜的短暂去极化。Ca2+水平失衡引起心肌细胞损伤,心肌细胞损伤随ph的下降而加重。线粒体Ca2+水平失调及其失衡可导致缺血性神经退行性疾病、神经精神疾病和癌症线粒体中额外钙的积累也增加了活性氧的产生和调节。因此,平衡的Ca2+缓冲是正常线粒体功能、细胞存活和长寿所必需的。线粒体还参与控制细胞周期和细胞生长。因此,过量的钙内流增加ROS的产生,诱导线粒体去极化并引发严重的发病机制。相反,低钙水平会影响体内平衡和氧化还原信号它也会引起压力,尤其是亚硝化或氧化应激。更常见的是,钙的过量摄取和钙在心肌细胞中的积累导致线粒体功能障碍,从而导致心脏病。线粒体在细胞的生命和死亡中起着重要的作用。细胞内质网Ca2+的获取在细胞增殖中起关键作用。
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Mitochondrial Ca2+ levels lower down rate of metabolic diseases and cardiomyopathies
Mitochondrial is an important cell organelle that generates ATP that is used as sole energy molecule for all physiological and metabolic activities. It supplies cellular energy and assist in signaling, cell metabolism, cellular differentiation, cell survival and other cell-specific functions. Calcium uptake takes place through mitochondrial outer membrane by voltage-dependent anion channels. After formation of electrochemical gradient and equilibrium on both sides’ mitochondrial functions become normal. It is maintained during oxidative phosphorylation. Thus buffering of cytosolic Ca2+ levels regulate mitochondrial effector functions. Ca2+ transported into mitochondria regulates its metabolism and causes transient depolarisation of mitochondrial membrane. Imbalance in Ca2+ levels cause cardiac myocyte injury that is increased with the decline in pH.1 Dysregulated mitochondrial Ca2+ level and its imbalances generate ischemia neurodegenerative diseases, neuropsychiatric disorders and cancer.2 Accumulation of extra calcium in mitochondria also increases production and modulation of reactive oxygen species. Therefore, balanced Ca2+ buffering is required for normal mitochondrial functions, cell survival and longevity. Mitochondria also involve in control of cell cycle and cell growth. Hence, excessive calcium influx increases ROS generation, induces mitochondrial depolarization and triggers sever pathogenesis. Contrary to this low calcium level affects homoeostasis and redox signaling.3 It also gives rise stress particularly, nitrosative or oxidative stress. More often, excessive calcium uptake of calcium and accumulation of it in cardiac muscle cells result in mitochondrial dysfunctions that impose heart disease. Mitochondria play a central role in cell life and cell death. Availability of Ca2+ in cell from endoplasmic reticulum plays a pivotal role in cell proliferation.
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