A Microfluidic Device for Nano-scale Extracellular Vesicles Differentiation Via The Synergetic Effect of Deterministic Lateral Displacement and Dielectrophoresis

Dayin Wang, J. Zhao, Yuan Luo
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Abstract

This paper proposes a novel microfluidic device based on the synergy of deterministic lateral displacement (DLD) and dielectrophoresis (DEP) techniques, which enables the differentiation of exosomes from both large extracellular vesicles (e.g. apoptotic vesicles, ectosomes) and particles that are close in size but differ in biochemical compositions (e.g. Lipoproteins, Exomeres, Retroviruses). We fabricated nanoscale pillar arrays through $\gt1 ~\mu$m resolution photolithography by making innovative use of thermal oxidation, which significantly reduces fabrication costs by avoiding the use of high-precision lithography. We further proceeded to optimize device design with simulation study and conduct experimental verification.
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一种基于确定性横向位移和介质电泳协同作用的纳米级细胞外囊泡分化微流控装置
本文提出了一种基于确定性横向位移(DLD)和介电电泳(DEP)技术协同作用的新型微流体装置,该装置能够从大的细胞外囊泡(如凋亡囊泡,外泌体)和大小相近但生化成分不同的颗粒(如脂蛋白,外显子,逆转录病毒)中分化外泌体。我们创新性地利用热氧化技术,通过$\gt1 ~ $\ mu$m分辨率光刻技术制造纳米级柱阵列,避免了高精度光刻技术的使用,从而显著降低了制造成本。我们进一步通过仿真研究对器件设计进行优化,并进行实验验证。
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