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用于太空和地球研究应用的基于组织芯片的血脑屏障建模。

Blood-brain-barrier modeling with tissue chips for research applications in space and on Earth.

作者信息

Yau Anne, Jogdand Aditi, Chen Yupeng

机构信息

Nanomedicine Lab, Department of Biomedical Engineering, University of Connecticut, Storrs, CT, United States.

出版信息

Front Space Technol. 2023;4. doi: 10.3389/frspt.2023.1176943. Epub 2023 Aug 9.

Abstract

Tissue chip technology has revolutionized biomedical applications and the medical science field for the past few decades. Currently, tissue chips are one of the most powerful research tools aiding in work to accurately predict the outcome of studies when compared to monolayer two-dimensional (2D) cell cultures. While 2D cell cultures held prominence for a long time, their lack of biomimicry has resulted in a transition to 3D cell cultures, including tissue chips technology, to overcome the discrepancies often seen in studies. Due to their wide range of applications, different organ systems have been studied over the years, one of which is the blood brain barrier (BBB) which is discussed in this review. The BBB is an incredible protective unit of the body, keeping out pathogens from entering the brain through vasculature. However, there are some microbes and certain diseases that disrupt the function of this barrier which can lead to detrimental outcomes. Over the past few years, various designs of the BBB have been proposed and modeled to study drug delivery and disease modeling on Earth. More recently, researchers have started to utilize tissue chips in space to study the effects of microgravity on human health. BBB tissue chips in space can be a tool to understand function mechanisms and therapeutics. This review addresses the limitations of monolayer cell culture which could be overcome with utilizing tissue chips technology. Current BBB models on Earth and how they are fabricated as well as what influences the BBB cell culture in tissue chips are discussed. Then, this article reviews how application of these technologies together with incorporating biosensors in space would be beneficial to help in predicting a more accurate physiological response in specific tissue or organ chips. Finally, the current platforms used in space and some solutions to overcome some shortcomings for future BBB tissue chip research are also discussed.

摘要

在过去几十年里,组织芯片技术彻底改变了生物医学应用和医学科学领域。目前,与单层二维(2D)细胞培养相比,组织芯片是最强大的研究工具之一,有助于准确预测研究结果。虽然二维细胞培养长期占据主导地位,但由于其缺乏生物模拟性,已导致向三维细胞培养的转变,包括组织芯片技术,以克服研究中常见的差异。由于其广泛的应用,多年来人们对不同的器官系统进行了研究,其中之一是血脑屏障(BBB),本综述将对此进行讨论。血脑屏障是人体令人难以置信的保护单元,可防止病原体通过脉管系统进入大脑。然而,有一些微生物和某些疾病会破坏这一屏障的功能,从而导致有害后果。在过去几年里,人们提出并建立了各种血脑屏障设计,用于研究地球上的药物递送和疾病建模。最近,研究人员开始在太空中利用组织芯片来研究微重力对人类健康的影响。太空中的血脑屏障组织芯片可以成为了解功能机制和治疗方法的工具。本综述阐述了单层细胞培养的局限性,而利用组织芯片技术可以克服这些局限性。讨论了目前地球上的血脑屏障模型及其制作方法,以及组织芯片中影响血脑屏障细胞培养的因素。然后,本文回顾了这些技术与在太空中整合生物传感器一起应用如何有助于预测特定组织或器官芯片中更准确的生理反应。最后,还讨论了目前在太空中使用的平台以及克服未来血脑屏障组织芯片研究中一些缺点的一些解决方案。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/61ad/11195916/2db4fc3eefa6/nihms-2001632-f0001.jpg

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