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In-situ Single Cell Mechanics Characterization of W303 Yeast Cells using Nanoneedles inside Environmental-SEM

机译:使用纳尼德内部环境SEM中的W303酵母细胞的原位单细胞力学表征

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In this paper, the characterizations of cellular mechanics of W303 yeast cells have been conducted using nanoneedles inside Environmental-SEM (ESEM). This enhanced ESEM system comprises of a standard ESEM instrument as a nano imaging tool, a cooling stage as a cellular biology's humidity controller and 7 D.O.F. linear actuators as nanomanipulator/effector. Four types of nanoneedles have been used in the experiments, i.e. silicon (Si) nanoneedle, titanium (Ti) coated Si nanoneedle and tungsten (W) nanoneedles. The former two nanoneedles are fabricated using 2 N/m spring constant's cantilevers. While the latter nanoneedles are fabricated using 0.09 N/m and 2 N/m spring constant's cantilevers (W{sub}0.09 and W{sub}2 nanoneedles). All types of the nanoneedles, i.e. Si, Ti-Si, W{sub}0.09 and W{sub}2 nanoneedles are able to be used for single cells' local stiffness characterizations. This ability can be used in future fast disease detection where the disease cells may shows different cell mechanics properties compare to the normal cell. In addition to this, the Si-Ti and W{sub}2 nanoneedles have shown an ability to penetrate the cell without cell bursting. This ability is important in the future single cell surgery where the cell damage can be eliminated as much as possible.
机译:本文使用环境-SEM(ESEM)内的纳米龙(ESEM)进行了W303酵母细胞的细胞机制的表征。该增强型ESEM系统包括标准ESEM仪器作为纳米成像工具,冷却级作为蜂窝生物学的湿度控制器和7d.o.f。作为纳米操纵器/效应器的线性执行器。在实验中使用了四种类型的纳米纳米,即硅(Si)纳米胺,钛(Ti)涂覆的Si nannoneedle和钨(W)纳米胺。前两条纳米纳金属使用2n / m弹簧常数的悬臂制造。虽然后者纳米块使用0.09n / m和2n / m弹簧常数的悬臂(W {sub} 0.09和w {sub} 2纳尼焊料)制造。所有类型的纳尼德,即Si,Ti-Si,W {Sub} 0.09和W {Sub} 2纳米能够用于单细胞的局部刚度表征。这种能力可用于未来的快速疾病检测,其中疾病细胞可以显示与正常细胞的不同细胞力学特性。除此之外,Si-Ti和W {sub} 2纳米纳尼尔队已经显示出渗透细胞的能力,没有细胞爆裂。这种能力在未来的单细胞手术中很重要,其中可以尽可能地消除电池损坏。

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