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− | Here, we present an early prototype that addresses these criteria. We created the chip from PDMS via soft lithography, using 3D-printed molds to speed up prototyping cycles compared to photolithography-based methods. | + | Here, we present an early prototype that addresses these criteria. We created the chip from PDMS via <a class="myLink" herf="https://2017.igem.org/Team:Munich/Protocols">soft lithography </a>, using 3D-printed molds to speed up prototyping cycles compared to photolithography-based methods. |
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− | As shown in a different section, fluid flow can be controlled with the pressure supplied by air balloons and a bike tire that powers quake valves. In early tests we used an open source 3D printed peristaltic pump, but we expect that the balloon based solution facilitates scaling down the system, improving portability while also lowering the cost. | + | As shown in a <a class="myLink" href=https://2017.igem.org/Team:Munich/Hardware/QuakeValve > different section,</a> fluid flow can be controlled with the pressure supplied by air balloons and a bike tire that powers quake valves. In early tests we used an open source 3D printed peristaltic pump, but we expect that the balloon based solution facilitates scaling down the system, improving portability while also lowering the cost. |
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Revision as of 19:39, 28 October 2017
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