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Nanocrystalline diamond microspikes increase the efficiency of ultrasonic cell lysis in a microfluidic lab-on-a-chip

机译:纳米晶金刚石微钉提高了微流控芯片实验室中超声细胞裂解的效率

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摘要

This research demonstrates that use of Nanocrystalline Diamond (NCD) microspikes in a microfluidic chamber increases the efficiency of mechanical cell lysis, as compared to a standard microfluidic surface such as glass. Microspikes made of nanocrystalline diamond were fabricated using standard MEMS techniques, and were incorporated in microfluidic chamber developed as part of a lab on a chip system. Mechanical cell lysis was performed on B16-F10 (ATCC CRL-6475) murine melanoma cells using ultrasonic vibration and the efficiency of cell lysis was determined. The microspikes puncture the cell membranes on collision greatly increasing the efficiency of cell lysis (about 400 percent as per fluorescence measurements) as compared to a non-textured glass surface. The effect of using cell disruption glass beads during ultrasonic lyses was also explored. This methodology of cell disruption could potentially make mechanical cell lysis a viable and preferred lysis option for lab-on-a-chip applications.
机译:这项研究表明,与标准的微流控表面(例如玻璃)相比,在微流控室中使用纳米晶金刚石(NCD)微钉提高了机械细胞裂解的效率。用标准的MEMS技术制造由纳米晶金刚石制成的微钉,并将其掺入作为芯片系统实验室的一部分而开发的微流腔中。使用超声振动在B16-F10(ATCC CRL-6475)鼠黑色素瘤细胞上进行机械细胞裂解,并确定了细胞裂解效率。与无纹理的玻璃表面相比,微峰在碰撞时会刺穿细胞膜,从而大大提高了细胞裂解效率(根据荧光测量结果约为400%)。还探讨了在超声裂解过程中使用细胞破碎玻璃珠的效果。这种细胞破碎的方法可能使机械细胞裂解成为芯片实验室应用的可行且首选的裂解选择。

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