用于心肌细胞图像化的LiNbO3衬底表面声波微流控芯片

Yongkang Li, T. Zheng, Changfeng Jia, Xudong Wang, Anpei Li, Yongqing Fu
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引用次数: 0

摘要

心血管疾病继续威胁着人类的生命、健康和安全。在各种治疗方法中,心肌组织工程是解决心血管疾病问题的重要方法之一。心肌组织工程的主要目标是使人工合成或修复的心肌具有其原有的生理功能,而心肌细胞的定向排列是最具挑战性的技术之一。因此,本研究设计了一种以LiNbO3为压电衬底的表面声波微流控芯片,以满足心肌细胞的图图化排列需求。本研究首先介绍了基于LiNbO3的微流控芯片的制备方法。利用微流控芯片对心肌细胞进行了图案模拟实验,验证了表面声波能使二氧化硅颗粒在流道中定向。微通道用于模拟心肌细胞的生长环境。其次,通过对实验结果的分析,得出本研究设计的表面声波微流控芯片具有图案化颗粒,显示了其在修复心肌组织损伤表面方面的应用潜力。最后,利用基于LiNbO3的表面声波微流控芯片对水凝胶中的心肌细胞进行排列。对凝固后的心肌纤维进行扫描,实验得到的心肌纤维内部心肌细胞的定向排列与理论一致。展示了LiNbO3衬底表面声波微流控芯片在心肌组织工程中心肌细胞图图化的巨大应用潜力。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A LiNbO3 substrate surface acoustic wave microfluidic chip for patterning of cardiomyocytes
Cardiovascular diseases continue to threaten human life, health and safety. Among various treatment methods, myocardial tissue engineering is one of the important methods to solve the problem of cardiovascular disease. The main goal of myocardial tissue engineering is to make the synthetic or repaired myocardium have its original physiological function, and the pattering of myocardium cells into a regular directional arrangement is one of the most challenging techniques. Therefore, in this study, a surface acoustic wave microfluidic chip with LiNbO3 as the piezoelectric substrate was designed to meet the needs of patterned arrangement of cardiomyocytes. Firstly, this study introduces the preparation method of the microfluidic chip based on LiNbO3. The microfluidic chip is used to carry out the patterning simulation experiment of cardiomyocytes, and it is verified that the surface acoustic wave can make the silica particles oriented in the flow channel. The micro-channel is used to simulate the growth environment of cardiomyocytes. Secondly, by analyzing the experimental results, it is concluded that the surface acoustic wave microfluidic chip designed in this study possesses patterned particles, demonstrating its application potential in repairing the damaged surface of myocardial tissue. Finally, a surface acoustic wave microfluidic chip based on LiNbO3 was used to arrange cardiomyocytes in the hydrogel. Scanning the solidified myocardial fibers, it is concluded that the directional arrangement of the internal myocardial cells of the myocardial fibers obtained from the experiment is consistent with the theory. Demonstrated the huge application potential of LiNbO3 substrate surface acoustic wave microfluidic chip for cardiomyocyte patterning in myocardial tissue engineering.
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