Gonzalo Budelli , María José Ferreiro , Carmen Bolatto
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引用次数: 0
Abstract
The Sociedad de Neurociencias del Uruguay is celebrating its 30th anniversary, sustained by more than a century of neuroscience research in the country. During this time, different approaches and experimental organisms have been incorporated to study diverse aspects of neurobiology. One of these experimental animals, successfully used in a variety of biological fields, is the fruit fly Drosophila melanogaster. Although Drosophila has been a model organism for neuroscience research worldwide for many decades, its use in Uruguay for that purpose is relatively new and just taking flight. In this special issue article, we will describe some of the research lines that are currently using Drosophila for neuroscience studies, questioning a wide range of issues including thermoreception, neurodegenerative diseases such as Parkinson's, screening of bioactive compounds with a neuroprotective effect, and gene/protein function during development of the nervous system.
The consolidation of these research lines has been achieved due to unique features of D. melanogaster as an experimental model. We will review the advantages of using Drosophila to study neurobiology and describe some of its useful genetic tools. Advantages such as having powerful genetics, highly conserved disease pathways, a complete connectome, very low comparative costs, easy maintenance, and the support of a collaborative community allowing access to a vast toolkit, all make D. melanogaster an ideal model organism for neuroscientists in countries with low levels of investment in research and development. This review focuses on the strengths and description of useful techniques to study neurobiology using Drosophila, from the perspective of a Latin-American experience.
乌拉圭神经科学学会(Sociedad de neurocicias del Uruguay)正在庆祝其成立30周年,该学会是由该国一个多世纪的神经科学研究支撑起来的。在此期间,不同的方法和实验生物体已被纳入研究神经生物学的各个方面。其中一种成功应用于多种生物领域的实验动物是果蝇。尽管几十年来果蝇一直是世界范围内神经科学研究的模式生物,但在乌拉圭,将果蝇用于这一目的相对较新,而且刚刚起步。在这篇特刊文章中,我们将描述目前使用果蝇进行神经科学研究的一些研究路线,质疑广泛的问题,包括热接受,神经退行性疾病(如Parkinsońs),具有神经保护作用的生物活性化合物的筛选,以及神经系统发育过程中的基因/蛋白质功能。这些研究线的巩固已经实现了由于D. melanogaster作为实验模型的独特特征。我们将回顾使用果蝇研究神经生物学的优势,并描述一些有用的遗传工具。具有强大的遗传学,高度保守的疾病途径,完整的连接组,非常低的相对成本,易于维护,以及允许访问大量工具包的协作社区的支持等优势,所有这些都使黑肠菌成为研究和开发投资水平低的国家神经科学家的理想模式生物。本文从拉丁美洲经验的角度,重点介绍了利用果蝇研究神经生物学的优势和有用技术的描述。
期刊介绍:
Neuroscience publishes papers describing the results of original research on any aspect of the scientific study of the nervous system. Any paper, however short, will be considered for publication provided that it reports significant, new and carefully confirmed findings with full experimental details.