[When we have learned about the brain development from a disease-oriented study: DBZ regulates cortical cell positioning and neurite extension by sustaining the anterograde transport of Lis1/DISC1 through control of Ndel1 phosphorylation].

Makoto Sato
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Abstract

Cell positioning and neuronal network formation are crucial for proper brain function. Disrupted-In-Schizophrenia 1 (DISC1) is anterogradely transported to the neurite tips, together with Lis1, and functions in neurite extension via suppression of GSK3β activity. Then, transported Lis1 is retrogradely transported and functions in cell migration. Here, we show that DISC1-binding zinc finger protein (DBZ) regulates mouse cortical cell positioning and neurite development in vivo, together with DISC1. DBZ hindered Ndel1 phosphorylation at threonine 219 and serine 251. DBZ depletion or expression of a double-phosphorylated mimetic form of Ndel1 impaired the transport of Lis1 and DISC1 to the neurite tips and hampered microtubule elongation. Moreover, application of DISC1 or a GSK3β inhibitor rescued the impairments caused by DBZ insufficiency or double-phosphorylated Ndel1 expression. We concluded that DBZ controls cell positioning and neurite development by interfering with Ndel1 from disproportionate phosphorylation, which is critical for appropriate anterograde transport of the DISC1-complex.

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[当我们从一项以疾病为导向的研究中了解到大脑发育:DBZ通过控制Ndel1磷酸化来维持Lis1/DISC1的顺行转运,从而调节皮质细胞定位和神经突延伸]。
细胞定位和神经网络的形成对正常的脑功能至关重要。DISC1与Lis1一起顺行运输到神经突尖端,并通过抑制GSK3β活性在神经突延伸中起作用。然后,转运的Lis1逆行转运并在细胞迁移中起作用。本研究表明,DISC1结合锌指蛋白(DBZ)在体内与DISC1一起调节小鼠皮质细胞定位和神经突发育。DBZ抑制了Ndel1在苏氨酸219和丝氨酸251位点的磷酸化。DBZ缺失或双磷酸化Ndel1模拟形式的表达破坏了Lis1和DISC1向神经突尖端的运输,阻碍了微管的延伸。此外,应用DISC1或GSK3β抑制剂可挽救由DBZ不足或双磷酸化Ndel1表达引起的损伤。我们得出结论,DBZ通过干扰Ndel1的不成比例磷酸化来控制细胞定位和神经突发育,而Ndel1的不成比例磷酸化对于disc1复合物的适当顺行运输至关重要。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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