Shaped nanomembranes: From fundamental perception to new concepts and applications

Y. Mei, O. Schmidt
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引用次数: 0

Abstract

Ultra-thin membranes out of inorganic materials can be easily formed into various shapes and geometries on a single chip. Imagine the following experiment: A compressively strained layer is released from the substrate by e.g. selective underetching. If the layer is homogeneously strained, the film forms wrinkles, whereas it bends if there is a large enough strain gradient across the thickness of the film [1]. We exploit these two phenomena to create large periodic arrays of wrinkled nanochannel arrays and rolled-up micro-and nanotubes. The unique approach to transform a 2D layer system, defined by advanced deposition and lithography techniques, into a 3D object technology [2], opens entirely new perspectives towards reproducible, size scalable and multi-functional components for on-and off-chip applications [3]. We demonstrate ionic sensitive field-effect transistors [4], novel micro-and nanojet engines [5], optofluidic sensors [6], single microtube batteries [7], new concepts for lab-in-a-tube systems [8] and metamaterial fiber optics [9].
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形纳米膜:从基本感知到新概念和应用
用无机材料制成的超薄薄膜可以很容易地在一个芯片上形成各种形状和几何形状。想象一下下面的实验:通过选择性底蚀刻,从衬底上释放出压缩应变层。如果薄膜层受到均匀的拉伸,薄膜就会形成褶皱,而如果薄膜厚度上有足够大的应变梯度,薄膜就会弯曲。我们利用这两种现象来制造褶皱纳米通道阵列和卷起的微纳米管和纳米管的大型周期性阵列。将先进的沉积和光刻技术定义的2D层系统转换为3D对象技术的独特方法,为片上和片外应用的可复制,尺寸可扩展和多功能组件开辟了全新的视角。我们展示了离子敏感场效应晶体管[4]、新型微纳米喷气发动机[5]、光流体传感器[6]、单微管电池[7]、管中实验室系统[8]和超材料光纤[9]。
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