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Thermal Response of Carbon Fiber Reinforced Polyimide Composite Laminate Coated with Highly Oriented Graphite Film Under Heating on Single Side

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Abstract

Polyimide composites, impeded by the physicochemical property of resin matrix material, are difficult to apply in the working conditions at higher temperatures. In order to increase the heat resistance of the composites, in this paper, two comparable samples, with/without a graphite film on a side of composite laminate, were chosen, and were investigated by adding the point heat to the composite surface or graphite film surface. The temperature distribution evolutions of the panels are tested and simulated. The comparative analyses show that the graphite film plays an effective role of thermal conductivity in in-plane direction and thermal isolation in thickness direction, reducing the temperature of the composite layers under the graphite film. The heat will preferentially choose the path with high thermal conductivity, so with the graphite film on heating surface exhibits the lowest temperature peak and the most uniform in-plane temperature distribution under the same thermal load.

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Correspondence to Xiaoliang Geng.

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Highlights

• The heat conduction mechanisms and features of the polyimide composite laminate coated by graphite film was investigated experimentally and numerically.

• The graphite film can play the role of high thermal conductivity in-plane direction and thermal isolation in thickness direction.

• Heating graphite surface of the laminate exhibits the lowest temperature peak and the most uniform distribution under same thermal-load.

• The heat will preferentially choose the path with high thermal conductivity.

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Huang, L., Geng, X., Li, H. et al. Thermal Response of Carbon Fiber Reinforced Polyimide Composite Laminate Coated with Highly Oriented Graphite Film Under Heating on Single Side. Appl Compos Mater 30, 857–870 (2023). https://doi.org/10.1007/s10443-023-10120-0

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