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首页> 外文期刊>Development >Cilia-driven fluid flow in the zebrafish pronephros, brain and Kupffer's vesicle is required for normal organogenesis.
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Cilia-driven fluid flow in the zebrafish pronephros, brain and Kupffer's vesicle is required for normal organogenesis.

机译:正常器官发生需要斑马鱼前缘,大脑和库普弗囊泡中纤毛驱动的流体流动。

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摘要

Cilia, as motile and sensory organelles, have been implicated in normal development, as well as diseases including cystic kidney disease, hydrocephalus and situs inversus. In kidney epithelia, cilia are proposed to be non-motile sensory organelles, while in the mouse node, two cilia populations, motile and non-motile have been proposed to regulate situs. We show that cilia in the zebrafish larval kidney, the spinal cord and Kupffer's vesicle are motile, suggesting that fluid flow is a common feature of each of these organs. Disruption of cilia structure or motility resulted in pronephric cyst formation, hydrocephalus and left-right asymmetry defects. The data show that loss of fluid flow leads to fluid accumulation, which can account for organ distension pathologies in the kidney and brain. In Kupffer's vesicle, loss of flow is associated with loss of left-right patterning, indicating that the 'nodal flow' mechanism of generating situs is conserved in non-mammalian vertebrates.
机译:纤毛作为运动和感觉细胞器,与正常发育以及包括囊性肾病,脑积水和逆位的疾病有关。在肾脏上皮细胞中,纤毛被认为是非运动性感觉细胞器,而在小鼠淋巴结中,已经提出了两种纤毛群体,运动的和非运动的,以调节位置。我们显示在斑马鱼幼虫肾,脊髓和库普弗的囊泡纤毛运动,这表明流体流动是每个这些器官的共同特征。纤毛结构或运动的破坏导致肾前囊肿形成,脑积水和左右不对称缺陷。数据表明,液体流量的损失导致液体积聚,这可以解释肾脏和大脑中器官的扩张病变。在Kupffer的囊泡中,血流的丧失与左右模式的丧失有关,这表明在非哺乳动物脊椎动物中保守了产生位点的“节流”机制。

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