斑马鱼神经疾病模型综述-1。前提:神经解剖学,细胞和基因同源性和实验可追溯性。

Harold A Burgess, Edward A Burton
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引用次数: 1

摘要

在过去的十年中,与神经系统疾病相关的基因数量急剧增加,需要新的模型来探索潜在的机制并测试潜在的治疗方法。在类似的时期,许多实验室采用斑马鱼作为研究大脑发育、定义神经回路和进行化学筛选的易于处理的模型。在这里,我们讨论使用斑马鱼系统来模拟神经系统疾病的优势和局限性。许多疾病模型的基本前提是人类和斑马鱼基因之间的高度同源性,加上保守的脊椎动物Bauplan和神经化学信号分子库。然而,我们警告说,重要的进化差异往往限制了人类症状在斑马鱼身上可以有意义地建模的程度。我们概述了遗传技术的进步,使人类突变忠实地复制在斑马鱼。再加上在单细胞水平上可视化神经元通路的发育和功能的方法,现在有了一个前所未有的机会来了解与疾病相关的遗传变化是如何破坏神经回路的,这种分析水平非常适合于揭示人类大脑疾病的致病变化。
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A Critical Review of Zebrafish Neurological Disease Models-1. The Premise: Neuroanatomical, Cellular and Genetic Homology and Experimental Tractability.

The last decade has seen a dramatic rise in the number of genes linked to neurological disorders, necessitating new models to explore underlying mechanisms and to test potential therapies. Over a similar period, many laboratories adopted zebrafish as a tractable model for studying brain development, defining neural circuits and performing chemical screens. Here we discuss strengths and limitations of using the zebrafish system to model neurological disorders. The underlying premise for many disease models is the high degree of homology between human and zebrafish genes, coupled with the conserved vertebrate Bauplan and repertoire of neurochemical signaling molecules. Yet, we caution that important evolutionary divergences often limit the extent to which human symptoms can be modeled meaningfully in zebrafish. We outline advances in genetic technologies that allow human mutations to be reproduced faithfully in zebrafish. Together with methods that visualize the development and function of neuronal pathways at the single cell level, there is now an unprecedented opportunity to understand how disease-associated genetic changes disrupt neural circuits, a level of analysis that is ideally suited to uncovering pathogenic changes in human brain disorders.

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