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首页> 外文期刊>Composite structures >Electro-thermal heating element with a nickel-plated carbon fabric for the leading edge of a wing-shaped composite application
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Electro-thermal heating element with a nickel-plated carbon fabric for the leading edge of a wing-shaped composite application

机译:带有镀镍碳织物的电热加热元件,用于翼形复合材料应用的前缘

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摘要

We propose a wing-shaped composite structure that uses an electroless nickel-plated carbon fabric as an electro-thermal heating element, thus improving the electrical and thermal properties. The results showed that the electro-thermal conversion efficiency increased from 0.064 to 0.054 W/C with increasing plating thickness and weight percentage of the nickel particles deposited. The experiments demonstrated that the surface temperature of the wing-shaped composite could be heated up to 87.9 degrees C within 1000 s at an applied power density of 2.11 kW/m(2). The measurement results agreed well with those of the coupled electro-thermal simulations of heating elements related to a resistance heating phenomenon via an electro-thermal conversion, and it validated the heating performance. In addition, the nickel-plated carbon fabric as a heating element for the leading edge of the wing-shaped model was examined using a multiphysics deicing simulation under actual icing conditions from a practical perspective. Most of the icing was removed by applying a power density of 2.7 kW/m(2) for 600 s to the wing-shaped composite structure. An interlaminar shear strength (ILSS) test was performed to verify the mechanical performance in terms of structural integrity. This practical approach could efficiently offer a desirable solution for the multifunctional de-icing composite field.
机译:我们提出了一种翼形复合结构,该结构使用化学镀镍碳织物作为电热加热元件,从而改善了电性能和热性能。结果表明,随着镀层厚度和镍颗粒重量百分比的增加,电热转换效率从0.064 W/C提高到0.054 W/C。实验表明,在2.11 kW/m(2)的功率密度下,翼形复合材料的表面温度可在1000 s内加热至87.9°C(2)。测量结果与电热转换电阻加热现象的电热耦合仿真结果吻合较好,验证了加热性能。此外,从实际结冰条件下,使用多物理场除冰仿真研究了镀镍碳织物作为翼形模型前缘的加热元件。通过对翼形复合材料结构施加 2.7 kW/m(2) 的功率密度 600 s,去除了大部分结冰。进行了层间剪切强度(ILSS)测试,以验证结构完整性方面的力学性能。这种实用的方法可以有效地为多功能除冰复合材料领域提供理想的解决方案。

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