New Results on Diffusion in Graphene Nanostructures for Sensoristics

IF 0.4 Q4 NANOSCIENCE & NANOTECHNOLOGY Nano Hybrids and Composites Pub Date : 2021-10-11 DOI:10.4028/www.scientific.net/NHC.33.61
P. Di Sia
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Abstract

Graphene has particularly interesting chemical and physical properties, including high chemical and mechanical resistance, excellent thermal and electric transport, high transparency. It combines the peculiarity of being an extremely light material with exceptional mechanical strength properties. Micro/nanoelectronics represents one of the key enabling technologies (KETs) of the future; it is the basis of innovation and competitiveness of almost all scientific and applicative sectors. Activities involving it are aimed at the development of new materials, processes, devices and technologies in a wide range of sectors, involving quantum information manipulation, multi-functional platforms, advanced materials, devices on flexible substrates. In the field of sensoristics, it is possible to create devices for applications in most sectors of global interest, such as punctual sensors, biosensors, specific transducers, multisensoristic systems, flexible sensoristic systems, multifunctional systems, advanced MEMS/MOEMS technologies for sensoristics, micro/nanoactuators, devices for energy convertion, gravimetric-electrochemical sensors. The paper provides an interesting overview of the possible applications of graphene in relation to its mechanical, thermal and optical properties, and relatively to the gas and biological sensoristic aspects, so as interesting informations for the increase in nanobio-devices performance by last efforts in theoretical nanophysics.
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传感用石墨烯纳米结构中扩散的新结果
石墨烯具有特别有趣的化学和物理性质,包括高耐化学性和机械性,优异的热电输运,高透明度。它结合了极轻材料的特性和特殊的机械强度特性。微/纳米电子学是未来的关键使能技术(KETs)之一;它是几乎所有科学和应用部门创新和竞争力的基础。涉及它的活动旨在开发广泛领域的新材料,工艺,设备和技术,涉及量子信息操纵,多功能平台,先进材料,柔性基板上的设备。在传感器领域,可以为全球感兴趣的大多数领域创建应用设备,例如准时传感器,生物传感器,特定传感器,多传感器系统,柔性传感器系统,多功能系统,用于传感器的先进MEMS/MOEMS技术,微/纳米致动器,能量转换设备,重力-电化学传感器。本文从石墨烯的机械、热学和光学特性,以及相对于气体和生物传感方面对其可能的应用进行了有趣的概述,从而为理论纳米物理学的最后努力提高纳米生物器件的性能提供了有趣的信息。
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Nano Hybrids and Composites
Nano Hybrids and Composites NANOSCIENCE & NANOTECHNOLOGY-
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