ht-MASH: a high-throughput, cost-effective, and robust protocol for microscopic 3D imaging of human angio- and cytoarchitecture in large human brain samples.

IF 1.2 4区 医学 Q3 ANATOMY & MORPHOLOGY
Sven Hildebrand, Johannes Franz, Shubharthi Sengupta, Anna Schueth, Andreas Herrler, Alard Roebroeck
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引用次数: 0

Abstract

The performance of many optical tissue clearing protocols has considerably improved in the last few years, so that now even notoriously difficult specimen such as highly myelinated human brain tissue can be rendered highly transparent. However, optical tissue clearing is still routinely performed on relatively small samples, especially in the case of the human brain. Recent advances in histological tissue processing now allow scaling up the clearing process considerably towards much larger samples. Yet so far, these methods can have considerable drawbacks in their feasibility to be implemented routinely, especially in smaller laboratories. Here, we present an updated version of our MASH protocol, which allows optical tissue clearing of very large human brain tissue samples and labelling of angio- and cytoarchitecture therein. This pipeline is cost-efficient and easy to implement, so that even smaller labs can apply it at scale. At the same time, the use of rapid prototyping using 3D printing to create custom clearing equipment is versatile enough to be adjusted to other optical tissue clearing methods than the one used in this study (e.g., aqueous methods such as CUBIC or other solvent-based methods of the DISCO family), sample sizes or tissue types. Our pipeline has, therefore, the potential to advance optical tissue clearing and labelling of large human tissue samples towards a more robust and routine implementation in the blooming field of 3D histology.

ht-MASH:一种高通量、高成本效益和强大的方案,用于在大型人脑样本中对人类血管和细胞结构进行显微3D成像。
在过去几年中,许多光学组织清除协议的性能有了相当大的提高,因此现在即使是出了名的困难的标本,如高度髓鞘的人类脑组织,也可以呈现出高度透明。然而,光学组织清除仍然是在相对较小的样本上常规进行的,特别是在人脑的情况下。组织学组织处理的最新进展现在允许扩大清理过程相当大的样本。然而,到目前为止,这些方法在常规实施的可行性方面存在相当大的缺陷,特别是在较小的实验室中。在这里,我们提出了我们的MASH协议的更新版本,它允许光学组织清除非常大的人类脑组织样本和标记血管和细胞结构。这种管道成本效益高,易于实现,因此即使是较小的实验室也可以大规模应用它。同时,使用3D打印快速成型来创建自定义清除设备是通用的,足以调整到其他光学组织清除方法,而不是本研究中使用的方法(例如,CUBIC等水性方法或DISCO家族的其他溶剂型方法),样品大小或组织类型。因此,我们的管道有潜力推进大型人体组织样本的光学组织清除和标记,在3D组织学的蓬勃发展领域实现更强大和常规的实施。
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来源期刊
Anatomical Science International
Anatomical Science International 医学-解剖学与形态学
CiteScore
2.80
自引率
8.30%
发文量
50
审稿时长
>12 weeks
期刊介绍: The official English journal of the Japanese Association of Anatomists, Anatomical Science International (formerly titled Kaibogaku Zasshi) publishes original research articles dealing with morphological sciences. Coverage in the journal includes molecular, cellular, histological and gross anatomical studies on humans and on normal and experimental animals, as well as functional morphological, biochemical, physiological and behavioral studies if they include morphological analysis.
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