Experimental Studies on Micropumps Using Rotational/Reciprocating Motions of Magnetic Material Balls

H. Kumamaru, Y. Nomura, Fuma Sakata, H. Fujiwara, K. Itoh
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Abstract

In application of micropumps to new fields in chemistry, biology, medical science and others, smaller sizes are supposed to be important rather than higher pump performance. In this study, considering from such a view point, micropumps using rotational and reciprocating motions of magnetic material balls were proposed and studied experimentally. The pump performance, i.e. the relation between flow rate and pump head are measured from liquid level changes in two containers connected to the inlet and outlet of the micropump. For the rotational motion micropump, while the maximum flow rate obtained, ~2 mL/min, is large enough as a micropump, the maximum pump head achieved, ~15 mm, is small even for a micropump. It is desirable to increase the pump head furthermore for this micropump. For the reciprocating motion micropump, the maximum flow rate obtained and the maximum pump head achieved are ~7.5 mL/min and ~625 mm, respectively. These values of the pump performance are sufficient as a micropump. Both the micropumps can be incorporated into microfluidic devices (tips) and can pump arbitrary kind of liquid.
磁性材料球旋转/往复运动微泵实验研究
微泵在化学、生物、医学等新领域的应用中,更小的尺寸比更高的性能更重要。本研究从这一角度出发,提出了利用磁性材料球的旋转和往复运动的微泵,并进行了实验研究。泵的性能,即流量与泵扬程的关系,是通过连接到微泵进出口的两个容器内的液位变化来测量的。对于旋转运动微泵,虽然获得的最大流量为~ 2ml /min,作为微泵已经足够大了,但获得的最大泵程为~ 15mm,即使对于微泵来说也是很小的。对于这种微型泵,需要进一步提高泵扬程。往复运动微泵获得的最大流量为~7.5 mL/min,获得的最大泵扬程为~625 mm。作为一个微型泵,这些泵的性能值是足够的。这两种微泵都可以集成到微流体装置(尖端)中,并且可以泵送任意种类的液体。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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