A Taste Bud Organoid-based MEA Biosensor for Taste Sensation

Shuge Liu, Ping Zhu, Yulan Tian, Yating Chen, Yage Liu, Wei Chen, L. Du, Chunsheng Wu
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Abstract

This study aims to develop a taste bud organoid-based biosensor for the research of taste sensation. For this, taste bud organoids were cultured and loaded onto the surface of microelectrode array (MEA) chip to explore the electrophysiological changes when taste perception occurs. In the experiment, 7-day-old C57BL6/J newborn mice were used, and the tongue epithelium was separated under an operating microscope. The single cell suspension was cultured at 37°C and 5% CO2. Then, a 64-channel MEA chip that can simultaneously record multiple-neuron firing activities was combined with taste bud organoids to record cell physiological changes under different taste stimuli, in order to reveal the role of taste buds in taste sensing. The obtained results have shown that taste cells separated from taste epithelium grown into spherical structures under 3D culture conditions. This structure is composed of multiple cells with obvious budding structure. Moreover, the multicellular spheres have been seeded on a 64-channel microelectrode array and processed with different taste stimuli. It is indicated that MEA chip can efficiently monitor the electrophysiological signals from taste bud organoids in response to various taste stimuli. In conclusion, this biosensor provides a new method for the study of taste sensation and taste bud functions.
一种基于味蕾器官的MEA味觉传感器
本研究旨在开发一种基于味蕾器官的生物传感器,用于味觉的研究。为此,我们将味蕾类器官培养并加载到微电极阵列(MEA)芯片表面,探索味觉产生时的电生理变化。实验选用7日龄C57BL6/J新生小鼠,在手术显微镜下分离舌上皮。单细胞悬液在37℃、5% CO2条件下培养。然后,将可同时记录多神经元放电活动的64通道MEA芯片与味蕾类器官结合,记录不同味觉刺激下细胞的生理变化,揭示味蕾在味觉感知中的作用。结果表明,味觉上皮分离的味觉细胞在三维培养条件下生长成球形结构。该结构由多个细胞组成,具有明显的出芽结构。此外,将多细胞球植入64通道微电极阵列上,并用不同的味觉刺激进行处理。实验结果表明,MEA芯片能够有效地监测味蕾类器官在各种味觉刺激下发出的电生理信号。总之,这种生物传感器为味觉和味蕾功能的研究提供了一种新的方法。
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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