微通道中细胞进料的一维模型

Igor Nesteruk, R. Visone, Alberto Redaelli
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引用次数: 0

摘要

芯片实验室技术是一种获取、培养和研究不同类型组织模型的新兴工具。特别是,关于心脏微组织,它可以用于研究响应仿生刺激的细胞行为(例如,电和/或机械驱动)。细胞在微流控芯片中培养,通常持续数天。在这段时间里,细胞需要喂养来维持生命、增殖和组织。微芯片特征的不同结构和尺寸会导致营养物质和废物在芯片上的不均匀分布,这在研究细胞对电和/或机械刺激的反应时必须考虑到。一个简单的一维扩散模型用于模拟营养物质和废物在先前开发的微流控芯片中的浓度。对于准稳定过程,得到了解析解并进行了分析。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
One-Dimensional Models for Cell Feeding in Micro-Channels
Lab-on-Chip technology is an emerging tool to obtain, culture and study different kinds of tissue models. In particular, concerning cardiac microtissues, it could be exploited to investigate cellular behavior in response to biomimetic stimulation (e.g., electrical and/or mechanical actuations). Cell culture in microfluidic chip, usually last several days. During this period of time, cells need feeding to stay alive, proliferate and organize. Different configurations and sizes of microchip features can cause non-uniform distribution of nutrients and wastes on chip, which must be taken into account in studying the response of cells to electrical and/or mechanical stimulations. A simple one-dimensional model of diffusion was used to simulate the concentration of a nutrient and a waste in a previously developed microfluidic chip. For quasi-steady processes, analytical solutions were obtained and analyzed.
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