Monitoring Intestinal Organoid–Derived Monolayer Barrier Functions with Electric Cell–Substrate Impedance Sensing (ECIS)

IF 1 Q3 BIOLOGY
Sarah Ouahoud, Francesca Giugliano, Vanesa Muncan
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引用次数: 0

Abstract

The measurement of transepithelial electrical resistance across confluent cell monolayer systems is the most commonly used technique to study intestinal barrier development and integrity. Electric cell substrate impedance sensing (ECIS) is a real-time, label-free, impedance-based method used to study various cell behaviors such as cell growth, viability, migration, and barrier function in vitro. So far, the ECIS technology has exclusively been performed on cell lines. Organoids, however, are cultured from tissue-specific stem cells, which better recapitulate cell functions and the heterogeneity of the parent tissue than cell lines and are therefore more physiologically relevant for research and modeling of human diseases. In this protocol paper, we demonstrate that ECIS technology can be successfully applied on 2D monolayers generated from patient-derived intestinal organoids. Key features • We present a protocol that allows the assessment of various cell functions, such as proliferation and barrier formation, with ECIS on organoid-derived monolayers. • The protocol facilitates intestinal barrier research on patient tissue-derived organoids, providing a valuable tool for disease modeling.
用电细胞-基底阻抗传感技术(ECIS)监测肠道类器官单层屏障功能
测量汇合细胞单层系统的跨上皮电阻是研究肠道屏障发育和完整性的最常用技术。电细胞基底阻抗传感(ECIS)是一种实时、无标记、基于阻抗的方法,用于研究体外细胞生长、活力、迁移和屏障功能等各种细胞行为。迄今为止,ECIS 技术只在细胞系中使用。然而,有机体是从组织特异性干细胞中培养出来的,与细胞系相比,它能更好地再现细胞功能和母体组织的异质性,因此与人类疾病的研究和建模更具生理相关性。在本论文中,我们证明了 ECIS 技术可成功应用于由患者肠道器官组织生成的二维单层细胞。主要特点 - 我们提出了一种方案,可通过 ECIS 在类器官单层上评估各种细胞功能,如增殖和屏障形成。- 该方案有助于对患者组织衍生的器官组织进行肠屏障研究,为疾病建模提供了宝贵的工具。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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CiteScore
1.50
自引率
0.00%
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