动态单体散射测量中鞘流暗区现象的研究

Lu Zhang, Hong Zhao, Xiaoping Wang, Weiguang Zhang
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引用次数: 0

摘要

动态细胞散射是探索细胞大小、形态和生长状态测量的最有效方法之一。该技术可广泛应用于制药、食品、白酒等生物领域的实时检测。本文设计了一种新颖的动态单体细胞散射测量方法,该方法利用鞘流驱动力使细胞一个个通过石英玻璃测量区。在实验过程中,发现了一个明显的现象,即鞘流暗区现象。在SFDZ的影响下,护套流动成形检测变得非常困难。本文分析了SFDZ产生的原因。提出了一种改进的方法,将测量区内的孔板设置为光学系统。然后对照明系统进行了重新设计。这样,几乎所有的照明光都能进入孔板,使总反射能量大大降低。通过对比实验,验证了该光学系统的有效性和声效对SFDZ的抑制作用。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
The study of sheath flow dark zone phenomenon in dynamic individual cells scattering measurement
Dynamic cells scattering is one of the most efficient approaches exploring in measurements of cells size, morphology and growth states. This technique can be widely applied in real-time detection for pharmaceutical industry, food industry, liquor industry and other biological fields. A novel method named dynamic individual cells scattering measurement is designed in this paper, which can make cells pass through quartz glass measurement zone one by one with sheath flow driving force. During the experiments, an obvious phenomenon has been found which is called sheath flow dark zone phenomenon (SFDZ). Under the influence of SFDZ, sheath flow forming detection becomes very difficult. In this paper, the causes giving rise to SFDZ have been analyzed. And an improved method is put forward, in which the orifice inside the measurement zone is set as an optical system. Then the illuminating system is redesigned. In this way, almost all the illuminating light can enter orifice so that the total reflection energy decreases substantially. A comparison experiments have been done, which proves the efficiency of this redesigned optical system and its sound effects on SFDZ avoiding.
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