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Selective Carbon Material Engineering for Improved MEMS and NEMS

机译:用于改进的MEMS和NEMS的选择性碳材料工程

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摘要

The development of micro and nano electromechanical systems and achievement of higher performances with increased quality and life time is confronted to searching and mastering of material with superior properties and quality. Those can affect many aspects of the MEMS, NEMS and MOMS design including geometric tolerances and reproducibility of many specific solid-state structures and properties. Among those: Mechanical, adhesion, thermal and chemical stability, electrical and heat conductance, optical, optoelectronic and semiconducting properties, porosity, bulk and surface properties. They can be affected by different kinds of phase transformations and degrading, which greatly depends on the conditions of use and the way the materials have been selected, elaborated, modified and assembled. Distribution of these properties cover several orders of magnitude and depend on the design, actually achieved structure, type and number of defects. It is then essential to be well aware about all these, and to distinguish and characterize all features that are able to affect the results. For this achievement, we point out and discuss the necessity to take into account several recently revisited fundamentals on carbon atomic rearrangement and revised carbon Raman spectroscopy characterizing in addition to several other aspects we will briefly describe. Correctly selected and implemented, these carbon materials can then open new routes for many new and more performing microsystems including improved energy generation, storage and conversion, 2D superconductivity, light switches, light pipes and quantum devices and with new improved sensor and mechanical functions and biomedical applications.
机译:微型和纳米机电系统的发展以及更高质量和更长使用寿命的更高性能的实现,正面临着寻找和掌握具有卓越性能和品质的材料的挑战。这些因素会影响MEMS,NEMS和MOMS设计的许多方面,包括几何公差以及许多特定固态结构和特性的可重复性。其中包括:机械,粘合,热和化学稳定性,电和导热性,光学,光电和半导体特性,孔隙率,体积和表面特性。它们会受到不同种类的相变和降解的影响,这在很大程度上取决于使用条件以及材料的选择,加工,修改和组装方式。这些特性的分布涵盖了几个数量级,并取决于设计,实际实现的结构,缺陷的类型和数量。因此,必须充分了解所有这些,并区分和表征所有可能影响结果的特征,这一点至关重要。对于这一成就,我们指出并讨论了除我们将简要描述的其他几个方面之外,还必须考虑到最近重新审视的碳原子重排和修正的碳拉曼光谱学表征的几个基本原理。经过正确选择和实施,这些碳材料便可以为许多新的,性能更高的微系统开辟新途径,包括改进的能量产生,存储和转换,二维超导,光开关,光导管和量子设备,并具有新的改进的传感器和机械功能以及生物医学应用程序。

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