纳秒脉冲激光激活大规模平行单细胞细胞内递送的钛微皿

Pallavi Shinde, Kavitha Illath, Srabani Kar, T. Santra
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引用次数: 1

摘要

单细胞细胞内递送是一个蓬勃发展的领域,由于货物对细胞膜屏障的不渗透性而面临各种挑战。这个想法是局部破坏细胞膜,使货物进入细胞质,从而产生治疗效果。到目前为止,大多数细胞内传递都是通过批量方法进行的,这种方法提供了平均的集成数据,丢失了低频稀有信息。此外,可靠的结果需要来自多个细胞的大量数据。因此,为了确保在单个细胞上获得大量数据,有必要同时在大量单细胞上进行传递实验。这确保了相同的实验条件下保存细胞群的异质性。从单个细胞收集的数据提供了关于细胞群体中罕见的低频等位基因的信息。大规模并行交付确保了这种均匀的实验条件和均匀的货物交付到大量的单个细胞。提出的设备平台是光热微皿阵列与纤维连接蛋白图案,以获得特定的单细胞附着。该设备可以同时输送10,000个细胞,效率为97%,细胞存活率为95%。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Nanosecond Pulsed Laser Activated Massively Parallel Single-cell Intracellular Delivery Using Ti Micro-Dish
Single-cell intracellular delivery is a booming field of interest with the various challenges faced due to the impermeability of cargo to the cell membrane barrier. The idea is to locally disrupt cell membrane for allowing cargo passage into the cytosol such as to create its therapeutic effect. Till to date, most of the intracellular delivery is performed in bulk approaches, which provides an average ensemble data, losing low-frequency rare information. Besides, reliable results require huge data from multiple cells. Hence, to ensure huge data on individual cells it becomes necessary to carry out delivery experiments on a large number of single-cells simultaneously. This ensures the same experimental conditions conserving heterogeneity in the cell population. The collection of data from individual cells provides information about rare low-frequency alleles in the cell population. Massively parallel delivery ensures such uniform experimental conditions with uniform cargo delivery to a large number of individual cells. The proposed device platform is an array of photothermal Micro-dish patterned with fibronectin protein to obtain specific Single-cell attachment. The device can deliver 10,000 individual cells with 97% efficiency and 95% cell viability simultaneously.
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