谐振栅极晶体管电极上碳纳米管通道的制备与表征

M. M. Aqil, M. Azam, R. Latif
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引用次数: 0

摘要

碳纳米管技术、纳米机电系统(nem)和微机电系统(MEMs)的集成可以获得新的应用。新的应用是一个晶体管,它使用碳纳米管作为源极和漏极之间的通道,而MEMs谐振器桥用作悬浮门。电极(源极/漏极)的制备工艺、碳纳米管在电极间的生长以及碳纳米管通道的表征,利用拉曼光谱研究时间和温度对碳纳米管通道(CNT-channel)质量的影响,利用场致发射扫描电镜/能量色散x射线分析(FESEM)研究碳纳米管的结构。结果表明,随着温度的升高和时间的延长,材料的质量逐渐提高。碳纳米管存在于电极之间,从源到漏沿乙醇方向生长。然而,碳纳米管的生长并没有随机排列。电极间通道蚀刻良好,EDX结果证实了这一点。表征证实碳纳米管存在于源和漏之间。将生长温度从700°C提高到725°C,可以提高生长CNTs的质量,这从拉曼信息中可以清楚地看出。而延长生长时间会降低品质,但影响不显著。FESEM表征表明碳纳米管生长随乙醇从源到漏随机流动,而EDX结果表明电极之间的通道蚀刻良好且清晰。
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Fabrication and Characterization of Carbon Nanotube Channel on the Electrodes for the Development of Resonant Gate Transistor
New application can be obtained by the integration between carbon nanotube technology Nano-Electro-Mechanical system (NEMs) and Micro-Electro-Mechanical system (MEMs). The new application is a transistor, which uses carbon nanotube as the channel between the source and drain, while MEMs resonator bridges are used as suspending gates. preparation process of the electrodes (source/drain), carbon nanotube growth between electrodes and the characterization of carbon nanotube channel using Raman spectroscopy to study the time and temperature effect on the quality of Carbon Nanotube channel (CNT-channel), field emission scanning electron microscope/Energy Dispersive X-ray Analysis (FESEM) to study CNT structure. The result shows the increasing of quality with the increase of both temperature and time. Carbon nanotubes exist between electrodes, and the growth direction follow ethanol direction from source to drain. However, the carbon nanotube growth randomly not aligned. The channel between electrodes were well etched, this has been approved by EDX result. The characterization confirmed the CNT presence between source and drain. Increasing the growth temperature from 700 to 725 °C enhanced the quality of growing CNTs, which is clearly shown from Raman information. While, increasing growth time decreased quality, but the effect not that significant. FESEM characterization shows that CNT growth follows the ethanol flow from source to drain randomly, while EDX result shows that the channel between the electrodes was well etched and clear.
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