Danijela Stankovic , Saskia Bulstrode , James R. Davidson , Dilum Fernando , Dipa Ray
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引用次数: 0
摘要
本文研究了由混合废塑料 (wMP)、回收碳纤维 (rCF) 和废玻璃纤维 (wGF) 制成的混合复合材料的性能。研究考虑了两种不同 wGF 和 rCF 含量的铺层结构:一种是约 7 Vol% 的 rCF(25 Vol% wGF),另一种是约 15 Vol% 的 rCF(9.4 Vol% wGF)。对这两种配置的标准试样的拉伸、压缩和弯曲性能进行了评估,结果表明,rCF 含量增加的试样性能更优。此外,还对含有 15% rCF 的三个混合 C 截面进行了热成型,并对其进行了轴向压缩。所有三个 C 型截面都因支承失效而失效,并伴有一些层间分层和加载端材料破碎。它们的特定重量承载能力比文献中公布的类似截面(如超薄壁钢 C 型截面)高出近 95%。开发的 C 型截面有限元模型(FEM)能够合理预测应力与应变的响应。这些研究结果表明,废弃物和回收的复合材料可以作为超薄壁钢 C 型截面和建筑中常用的其他传统材料的可持续替代品。
Developing hybrid C-sections from waste and recycled composite materials
This paper investigates the performance of hybrid composites made from mixed waste plastics (wMP), recycled carbon fibre (rCF), and waste glass fibre (wGF). Two lay-up configurations with varying wGF and rCF contents were considered: one with approximately 7 vol% rCF (25 vol% wGF) and another with approximately 15 vol% rCF (9.4 vol% wGF). The tensile, compressive, and flexural performance of standard coupon specimens for both configurations were assessed, revealing that specimens with increased rCF content exhibited superior performance. Additionally, three hybrid C-sections, containing 15 vol% rCF, were thermoformed and subjected to axial compression. All three C-sections failed due to bearing failure, accompanied by some interlaminar delamination and material crushing at the loading ends. Their weight-specific load capacity surpassed that of similar sections published in the literature, such as ultra-thin-walled steel C-sections, by almost 95 %. A finite element model (FEM) of the C-section was developed and was able to predict reasonably well the stress versus strain response. These findings demonstrate that waste and recycled composite materials could serve as sustainable alternatives to ultra-thin-walled steel C-sections and other conventional materials commonly used in construction.
期刊介绍:
Sustainable Materials and Technologies (SM&T), an international, cross-disciplinary, fully open access journal published by Elsevier, focuses on original full-length research articles and reviews. It covers applied or fundamental science of nano-, micro-, meso-, and macro-scale aspects of materials and technologies for sustainable development. SM&T gives special attention to contributions that bridge the knowledge gap between materials and system designs.