Microorganisms driven micro actuation mechanisms for the kinetic energy harvesting

T. Hatsuzawa, Y. Yanagida, T. Nisisako
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引用次数: 2

Abstract

Three types of micro actuation mechanisms for the kinetic energy harvesting by microorganisms were fabricated by optical lithography and 3D printing. A phytoplankton and a zooplankton have been selected for the driving source because of its nature of phototaxis, which unites the swimming direction to a specific orientation of the mechanism. First, a reciprocating micro-float was driven by Artemia, which is a salt water zooplankotn, with a driving speed of 0.3mm/s. Next, a rotary micro-ratchet was also driven by Artemia larva, with a rotation speed of 0.35 rpm. Lastly, a micro-ratchet is driven by Volvox — a phytoplankton, and achieved a rotation speed of 3.5rpm. Those may provide a new micro-actuators driven by microorganisms, which may develop an alternative kinetic energy harvesting and environment monitoring technology.
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微生物驱动的动能收集微驱动机构
利用光学光刻和3D打印技术制备了三种微生物动能收集微驱动机构。一种浮游植物和一种浮游动物被选为驱动源,因为它具有趋光性,将游动方向统一到机制的特定方向。首先,采用海水浮游动物Artemia驱动往复微型浮子,驱动速度为0.3mm/s。然后,用Artemia幼虫驱动旋转微型棘轮,转速为0.35 rpm。最后,微型棘轮由浮游植物Volvox驱动,转速达到3.5rpm。这可能提供一种新的微生物驱动微致动器,从而开发出一种可替代的动能收集和环境监测技术。
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