A polyamide and polyethylene multilayer composite with enhanced barrier and mechanical properties at high temperature†

Weiqing Fang, Yu Hui Cheng, Adam Pearson, Yige Huang, Ashkan Dargahi, Mark Duncan, Joel Runka, Ahmed Hammami and Hani E. Naguib
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Abstract

An advanced multilayer thermoplastic composite, composed of Polyethylene of Raised Temperature (PERT), Polyamide 12 (PA12), and Maleic Anhydride Grafted Polyethylene (MA), has been developed for high-temperature, high-pressure applications. An adhesive layer consisting of 35–60–5 wt% PERT-PA12-MA (Blend), has been tailored to optimize adhesive strength between PERT and PA12 layers. The developed three-layer composite (Trilayer) demonstrated exceptional water vapor and CO2 barrier properties by incorporating PERT as a water transmission retarder and PA12 as a CO2 diffusion retarder. At 82 °C, the water vapor transmission rate and CO2 permeability of Trilayer samples were 58%, and 31% lower than those of the Blend, respectively. The Trilayer samples exhibited an average Young's modulus that was 17% higher than that of the Blend, while the yield stress was similar to the Blend. In terms of creep resistance, the Trilayer samples showed a 29% and 40% reduction in tensile creep strain and creep rate, respectively, compared to the Blend. Additionally, the Trilayer samples achieved 48% and 39% decreases in flexural creep strain and creep rate, respectively, in the flexural creep test. The Trilayer also exhibited a 56% decrease in deformation under drop-weight impact and a 14% improved impact absorption compared to the Blend. The overall performance of the multi-layer thermoplastic composite made from PERT and PA12 constituents was significantly enhanced, aligning with the carbon footprint reduction initiative to substitute thermoset, metal, and other traditional materials.

Abstract Image

在高温下具有更强阻隔性和机械性能的聚酰胺和聚乙烯多层复合材料†。
我们开发了一种先进的多层热塑性复合材料,由升温聚乙烯 (PERT)、聚酰胺 12 (PA12) 和马来酸酐接枝聚乙烯 (MA) 组成,适用于高温高压应用。粘合剂层由 35-60-5 wt% 的 PERT-PA12-MA (混合物)组成,可优化 PERT 和 PA12 层之间的粘合强度。所开发的三层复合材料(Trilayer)将 PERT 作为水传输阻滞剂,将 PA12 作为二氧化碳扩散阻滞剂,从而表现出优异的水蒸气和二氧化碳阻隔性能。82 °C 时,Trilayer 样品的水蒸气透过率和二氧化碳渗透率分别比混合物低 58% 和 31%。Trilayer 样品的平均杨氏模量比混合材料高 17%,而屈服应力与混合材料相似。在抗蠕变性方面,与混合材料相比,Trilayer 样品的拉伸蠕变应变和蠕变速率分别降低了 29% 和 40%。此外,在挠曲蠕变试验中,Trilayer 样品的挠曲蠕变应变和蠕变速率分别降低了 48% 和 39%。与混合材料相比,Trilayer 材料在落重冲击下的变形也减少了 56%,冲击吸收能力提高了 14%。由 PERT 和 PA12 成分制成的多层热塑性复合材料的整体性能显著提高,与替代热固性、金属和其他传统材料的减少碳足迹倡议相一致。
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