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Update on the Role of the Non-Canonical Wnt/Planar Cell Polarity Pathway in Neural Tube Defects

机译:非经典Wnt /平面细胞极性通路在神经管缺陷中作用的最新进展

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摘要

Neural tube defects (NTDs), including spina bifida and anencephaly, represent the most severe and common malformations of the central nervous system affecting 0.7–3 per 1000 live births. They result from the failure of neural tube closure during the first few weeks of pregnancy. They have a complex etiology that implicate a large number of genetic and environmental factors that remain largely undetermined. Extensive studies in vertebrate models have strongly implicated the non-canonical Wnt/planar cell polarity (PCP) signaling pathway in the pathogenesis of NTDs. The defects in this pathway lead to a defective convergent extension that is a major morphogenetic process essential for neural tube elongation and subsequent closure. A large number of genetic studies in human NTDs have demonstrated an important role of PCP signaling in their etiology. However, the relative contribution of this pathway to this complex etiology awaits a better picture of the complete genetic architecture of these defects. The emergence of new genome technologies and bioinformatics pipelines, complemented with the powerful tool of animal models for variant interpretation as well as significant collaborative efforts, will help to dissect the complex genetics of NTDs. The ultimate goal is to develop better preventive and counseling strategies for families affected by these devastating conditions.
机译:神经管缺损(NTD),包括脊柱裂和无脑,是中枢神经系统最严重和最常见的畸形,每1000例活产中有0.7–3例畸形。它们是由怀孕前几周神经管闭合失败引起的。它们的病因很复杂,暗示了许多尚未确定的遗传和环境因素。在脊椎动物模型中的广泛研究已将NTD发病机理中的非经典Wnt /平面细胞极性(PCP)信号传导途径密切相关。该途径中的缺陷导致有缺陷的会聚延伸,这是神经管伸长和随后闭合所必需的主要形态发生过程。人类NTD的大量遗传学研究表明PCP信号传导在其病因中具有重要作用。然而,这种途径对这种复杂病因的相对贡献正在等待对这些缺陷的完整遗传结构的更好了解。新的基因组技术和生物信息学管道的出现,再加上强大的动物模型用于变体解释的工具,以及大量的协作工作,将有助于剖析NTD的复杂遗传学。最终目标是为受这些破坏性状况影响的家庭制定更好的预防和咨询策略。

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