A Single Moving Drop To Produce Power!
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Researchers from #-Link-Snipped-# have come up an easy, effective energy-yielding device that employs the motion of a lone droplet to produce electrical power. As per the statement, this new technology could be the answer to power supply for low-power handheld devices, and woud even yield energy satisfactorily from low-frequency mediums like the human body. This technology has made its way into the  <em>#-Link-Snipped-#. </em>The device supposedly produces power as an electrically conductive droplet (mercury or even an ionic liquid) moves along a thin micro-assembled material known as an electret film, which features an enduring electric charge established into it in the course of accumulation.
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Repeated tilting of the device leads to the droplet gain momentum across the film’s surface; the maximum output voltage (and power) appear as the gliding droplet attains its highest velocity at one extremity of the film. The model of the fluid-energy yielder exhibited a maximum output power at 0.18 microwatts, having employed a droplet 1.2mm in diameter gliding over a 2?m-broad electret film.
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Researchers from #-Link-Snipped-# have come up an easy, effective energy-yielding device that employs the motion of a lone droplet to produce electrical power. As per the statement, this new technology could be the answer to power supply for low-power handheld devices, and woud even yield energy satisfactorily from low-frequency mediums like the human body. This technology has made its way into the  <em>#-Link-Snipped-#. </em>The device supposedly produces power as an electrically conductive droplet (mercury or even an ionic liquid) moves along a thin micro-assembled material known as an electret film, which features an enduring electric charge established into it in the course of accumulation.
#-Link-Snipped-#
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Repeated tilting of the device leads to the droplet gain momentum across the film’s surface; the maximum output voltage (and power) appear as the gliding droplet attains its highest velocity at one extremity of the film. The model of the fluid-energy yielder exhibited a maximum output power at 0.18 microwatts, having employed a droplet 1.2mm in diameter gliding over a 2?m-broad electret film.
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