石墨烯纳米片增强环氧树脂导热性能关键影响因素的测定

Max Rieger, B. Nagarajan, Mario Vollmer, P. Mertiny
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摘要

将微粒子和纳米粒子分散到聚合物材料中已经被证明可以诱导聚合物复合材料的多功能特性,包括磁性、电学、热学和机械特性。在聚合物材料中加入碳基纳米颗粒内含物,如石墨烯纳米片(GNP),通常会增强聚合物材料的热学、电学和机械性能。通过添加高导热填料来提高导热性,特别是在电子工业等各种可能的应用中具有巨大的潜力。在这项研究中,重点是通过分散GNP在预聚物中来增加环氧树脂的导热性。考察了填料用量、溶胀影响、溶剂和助剂用量、超声时间和振幅、固化周期等工艺参数的影响。通过实验设计方法,确定了对提高导热系数影响最大的参数。通过本研究,从定性和定量的角度更好地了解了工艺参数的影响。该研究进一步有助于选择理想的工艺参数,以最大限度地提高热导率。
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Determination of Key Influencing Factors on Thermal Conductivity Enhancement of Graphene Nano-Platelets Reinforced Epoxy
Dispersing micro and nanoparticles into polymeric materials has proven to induce multifunctional properties in polymer composites, including their magnetic, electrical, thermal and mechanical characteristics. Adding carbon-based nanoparticle inclusions such as Graphene Nano-Platelets (GNP) to polymeric materials typically leads to thermal, electrical and mechanical property enhancements. Raising thermal conductivity by adding highly thermally conductive fillers particularly harbors great potential given diverse possible applications, such as in the electronics industry. In this study, the focus is on increasing the thermal conductivity of an epoxy by dispersing GNP in the pre-polymer. The influence of various process parameters such as filler loading, influence of swelling, use of solvent and additives, sonication time and amplitude, as well as curing cycle were determined. By means of a Design of Experiments approach the parameters which have the greatest effect on thermal conductivity enhancement were identified. Through this study a better understanding of the influence of process parameters was achieved in a qualitative and quantitative manner. The study further aids in selecting ideal process parameters for maximum thermal conductivity enhancements.
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