Growing organoids and spheroids on a chip

Amani Ghassan, S. Sahloul, A. Orozaliev, P. Percipalle, Yong-Ak Song
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Abstract

Organoids have gained significant interests in the recent years to recapitulate organ development and disease progression in-vitro for personalized medicine. We propose a microfluidic chip design to grow organoids and spheroids of more uniform size and shape with minimal intervention. The hybrid design of the microfluidic chip allows to open and close culture wells using a reversibly bonded cover sheet. By combining the advantages of open wells similar to the conventional microplate wells and the sealed channel of microfluidic chips, cells can directly be pipetted into individual wells and continuously perfused after sealing. We demonstrated the concept of the hybrid chip by growing spheroids out of mouse embryonic fibroblasts and characterized the uniformity of their size and shape.
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在芯片上培育类器官和球体
近年来,类器官获得了极大的兴趣,以概括个性化医疗的器官发育和疾病进展。我们提出了一种微流控芯片设计,可以在最小的干预下生长更均匀大小和形状的类器官和球体。微流控芯片的混合设计允许使用可逆粘合盖板打开和关闭培养井。结合传统微孔板开孔的优点和微流控芯片的密封通道,可以直接将细胞移液到单孔中,密封后连续灌注。我们通过从小鼠胚胎成纤维细胞中培养球体来证明杂交芯片的概念,并表征了它们的大小和形状的均匀性。
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