球形填料对环氧树脂和聚酯基体导热性能的影响:实验验证与有限元法预测

Priyabrat Pradhan, Abhilash Purohit, Hemalata Jena, Jayashree Singh, Bibhuti Bhusan Sahoo
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引用次数: 0

摘要

本研究介绍了如何为嵌入球形夹杂物的聚合物创建理论热传导模型。本研究还对利用该模型估算此类复合材料有效导热系数 (K) 的相关建议进行了实验验证。根据 ASTM-E-1530,在聚酯树脂中添加不同量的氧化铝和松木粉末可制成复合材料。然后使用 Unitherm TM 2022 模型确定复合材料的有效导热系数 (Keff)。Ansys 19.R2 软件用于评估这些填料分布均匀的复合材料的有效热导率,而 Digimat-FE 软件则用于确定这种填料分布随机的颗粒填充聚合物复合材料的热导率值。经过与实验数据的比较和验证,这些值与建议的相关理论值相当吻合。研究进一步扩展到确定使用木苹果壳粉尘和椰壳粉尘颗粒的环氧树脂复合材料的导热系数。此外,还以类似的方式研究了用二氧化硅和二氧化钛增强的环氧树脂和聚酯复合材料。本报告的主要目的是通过改变多种聚合物来验证复合材料的数值结果。所有复合材料的导热率都随着填料含量的增加而单调增长。二氧化硅、氧化钛和氧化铝填充环氧树脂复合材料的导热系数分别为 1.5、7 和 35 W/m-K。Ansys 19.R2 和 digimat 软件用于预测这些复合材料的导热系数。该数学模型还用于预测环氧树脂复合材料的导热系数,以检验模型的准确性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Effects of spherical fillers reinforcement on the efficacy of thermal conductivity in epoxy and polyester matrices: Experimental validation and prediction using finite element method
The creation of a theoretical heat conduction model for polymers embedded with spherical inclusions is described in this study. It also contains the experimental confirmation of the suggested correlation for utilizing the model to estimate the effective thermal conductivity (K) of such composites. According to ASTM‐E‐1530, composites are made with varying amounts of aluminium oxide and pine wood dust reinforced in polyester resin. The effective thermal conductivities (Keff) of the composites are then determined using the Unitherm TM model 2022. Ansys 19.R2 software is used to evaluate the effective thermal conductivity of these composites with a uniform filler distribution, while Digimat‐FE software is used determine the thermal conductivity values of such particle filled polymer composites with a random filler distribution. After comparison and validation with experimental data, these values are shown to be fairly good agreement with the theoretical values from the suggested correlation. The investigation is further expanded to determine the thermal conductivities for epoxy composites using wood apple shell dust and coir dust particle. Also epoxy and polyester composites reinforced with SiO2 and TiO2 have been investigated in the similar manner. The main thrust of this report to validate the numerical results of composites by varying numerous polymers. The thermal conductivity all the composites grow monotonically with increase in filler content. The thermal conductivity of silicon dioxide, titanium oxide, and aluminium oxide filled epoxy composites is measured as 1.5, 7, and 35 W/m‐K respectively.Highlights In this study spherical fillers are successfully used as a potential filler material in polyester composites The thermal conductivity predicted by proposed mathematical model of polyester is validated with measured value and found better agreement. The Ansys 19.R2 and digimat software are used to predict the thermal conductivity values of these composites. The mathematical model is further used to predict thermal conductivity of epoxy composites to check the accuracy of the model.
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