Characterization of Composite Materials Using Carbon Nano Tube Carboxy Group Introduction and Aluminum Oxide Synthesis

IF 0.9 4区 材料科学 Science of Advanced Materials Pub Date : 2024-07-01 DOI:10.1166/sam.2024.4685
Han-Byeol Kim, Min-Woo Cheon
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Abstract

The high integration and high density of semiconductor packages are generating increased heat in electronic devices, leading to issues such as reduced lifespan and malfunctions in electronic devices. In response, research on thermal interface materials is being conducted to address heat generated from heat sources, and various studies, particularly those applying carbon nano tube, are notable in this regard. However, in the case of carbon nano tube, there are challenges in industrial application due to the occurrence of cohesive forces through van der Waals interactions. Therefore, in this study, the characteristics were analyzed through the formation of carbon nano tube carboxyl groups (–COOH) and the synthesis of aluminum oxide via chloride (–COCl) formation. After the chloride process, a functional group –COCl was confirmed at 430 cm−1. It was confirmed that the electrical properties were improved as a result of the CNT, CNT carboxyl, and chloride process. It is believed that the electrical properties improved as impurities were removed during the acid treatment process. In addition, it is believed that the electrical properties were improved due to the increase in intermolecular forces between CNTs. Through this, it is determined that the application of carbon nano tube and aluminum oxide composite materials can be highly beneficial for thermal conductivity heat dissipation filler applications.
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利用碳纳米管羧基引入和氧化铝合成复合材料的表征
半导体封装的高集成度和高密度增加了电子设备的发热量,导致电子设备寿命缩短和故障等问题。为此,人们正在开展热界面材料的研究,以解决热源产生的热量问题,在这方面的各种研究,尤其是应用碳纳米管的研究引人注目。然而,就碳纳米管而言,由于范德华相互作用会产生内聚力,因此在工业应用中存在挑战。因此,本研究通过碳纳米管羧基(-COOH)的形成和通过氯化物(-COCl)的形成合成氧化铝来分析其特性。氯化过程后,在 430 cm-1 处确认了官能团 -COCl。经证实,CNT、CNT 羧基和氯化过程改善了电气性能。据信,在酸处理过程中去除杂质后,电气性能得到了改善。此外,CNT 分子间作用力的增加也改善了电气性能。由此可以确定,碳纳米管和氧化铝复合材料的应用对导热散热填料的应用大有裨益。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Science of Advanced Materials
Science of Advanced Materials NANOSCIENCE & NANOTECHNOLOGY-MATERIALS SCIENCE, MULTIDISCIPLINARY
自引率
11.10%
发文量
98
审稿时长
4.4 months
期刊最新文献
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