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Drosophila as an unconventional substrate for microfabication

机译:果蝇作为微型用途的非常规基质

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We present the application of Drosophila fruit flies as an unconventional substrate for microfabrication. Drosophila by itself represents a complex system capable of many functions not attainable with current microfabrication technology. By using Drosophila as a substrate, we are able to capitalize on these natural functions while incorporating additional functionality into a superior hybrid system. In the following, development of microfabrication processes for Drosophila substrates is discussed. In particular, results of a study on Drosophila tolerance to vacuum pressure during multiple stages of development are given. A remarkable finding that adult Drosophila may withstand up to 3 hours of exposure to vacuum with measurable survival is noted. This finding opens a number of new opportunities for performing fabrication processes, similar to the ones performed on a silicon wafer, on a fruit fly as a live substrate. As a model microfabrication process, it is shown how a collection of Drosophila can be made to self-assemble into an array of microfabricated recesses on a silicon wafer and how a shadow mask can be used to thermally evaporate 100 nm of indium on flies. The procedure resulted in the production of a number of live flies with a pre-designed metal micropattern on their wings. This demonstration of vacuum microfabrication on a live organism provides the first step towards the development of a hybrid biological/solid-state manufacturing process for complex microsystems.
机译:我们提出果蝇果的应用蝇作为用于微制造一种非常规的衬底上。果蝇本身表示能够诸多功能与目前的微细加工技术无法达到的复杂系统。通过使用果蝇作为底物,我们能够利用这些自然功能,同时结合附加功能到优良杂种系统。在下文中,对于基板果蝇微细加工处理的发展进行了讨论。特别是,在开发的多个阶段果蝇耐受真空压力的一项研究结果中给出。一个显着的发现,即成年果蝇可承受300小时的暴露于具有可测量生存真空注意。这个发现开辟了许多的新的机会,作为活基板进行制造工艺中,类似于在硅晶片上进行的,在果蝇。作为模型微细加工工艺,它示出了如何果蝇的集合以便能够对自组装成微制造凹部的硅晶片上的阵列,以及如何荫罩可用于在果蝇热蒸发铟的100纳米。该过程导致产生了一些对他们的翅膀预先设计的金属微直播苍蝇。这在实时生物真空微细加工的示范提供朝向混合生物/固态制造工艺的发展,为复杂的微系统的第一步。

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