基于下落速度检测的球形细胞机器人称重

Qili Zhao, Mingzhu Sun, Maosheng Cui, Jin Yu, Xin Zhao
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引用次数: 5

摘要

细胞称重在探测细胞组成和定量细胞间物质相互作用方面具有很大的应用潜力。为了避免传统称重方法中涉及的设备成本过高的问题,提出了一种新颖、简单的球形细胞机器人称重方法。根据物理知识,在巨大的液体环境中释放的球形细胞往往以恒定的速度下落。从这个恒定的速度可以估计出电池的密度,从而可以推导出电池的质量。基于这一点,本文在传统的微操作系统上实现了机器人恒落速检测过程。实验结果表明,检测到的羊卵母细胞密度与已知的生物细胞含水量一致,证明了所提出的称重方法的可行性。此外,所提出的方法被证明可以检测到细胞的微小质量变化(小于2%),这证明了我们的方法的高灵敏度。
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Robotic weighing for spherical cells based on falling speed detection
Cell weighing has great potential applications in probing the cellular composition and quantifying material interaction of the cell. In this paper, a novel and simple robotic weighing approach for spherical cells is proposed to avoid high cost of involved devices in traditional methods. According physical knowledge, the spherical cells released in enormous liquid environment tends to fall at a constant speed. The density of cell can be estimated from this constant speed, and in consequence, the mass of cell can be derived. Based on this point, the constant falling speed detection process is realized robotically on a traditional micro-operation system in this paper. Experimental results demonstrate that the detected density of sheep oocyte is accordance with the known water-percentage of biological cells, which proves the feasibility of the proposed weighing method. Furthermore, the proposed approach is proved to detect the tiny mass-variation of the cell (less than 2%), which proves the high sensitivity of our method.
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