Department of Pathology and Laboratory Medicine, University of California, Davis, Sacramento, CA, USA.
Institute for Pediatric Regenerative Medicine, Shriners Hospitals for Children-Northern California, Sacramento, CA, USA.
Neuroscientist. 2021 Oct;27(5):463-472. doi: 10.1177/1073858420960112. Epub 2020 Sep 26.
In neuroscience research, the efforts to find the model through which we can mimic the in vivo microenvironment of a developing or defective brain have been everlasting. While model organisms are used for over a hundred years, many more methods have been introduced with immortalized or primary cell lines and later induced pluripotent stem cells and organoids to be some of these. As the use of organoids becomes more and more common by many laboratories in biology and neuroscience in particular, it is crucial to deeper understand the challenges and possible pitfalls of their application in research, many of which can be surpassed with the support of state-of-the art bioengineering solutions. In this review, after a brief chronicle of the path to the discovery of organoids, we focus on the latest approaches to study neuroscience related topics with organoids, such as the use of assembloids, CRISPR technology, patch-clamp and optogenetics techniques and discuss how modern 3-dimensional biomaterials, miniaturized bioreactors and microfluidic chips can help to overcome the disadvantages of their use.
在神经科学研究中,人们一直在努力寻找一种模型,通过该模型可以模拟发育中或有缺陷的大脑的体内微环境。虽然模型生物已经使用了一百多年,但随着永生化或原代细胞系的引入,以及诱导多能干细胞和类器官的出现,出现了更多的方法。随着类器官在生物学和神经科学等领域的许多实验室中越来越普遍地被使用,深入了解其在研究中的应用所面临的挑战和可能出现的陷阱变得至关重要,其中许多挑战可以通过最先进的生物工程解决方案来克服。在这篇综述中,在简要回顾类器官的发现路径之后,我们重点介绍了使用类器官研究神经科学相关课题的最新方法,例如 assembloids 的使用、CRISPR 技术、膜片钳和光遗传学技术,并讨论了现代 3 维生物材料、微型化生物反应器和微流控芯片如何帮助克服其使用的缺点。