利用玻璃纤维的再利用来改善污水修复管道的耐化学性,从而实现可持续的解决方案

IF 4.6 Q2 GREEN & SUSTAINABLE SCIENCE & TECHNOLOGY
Recycling Pub Date : 2024-03-31 DOI:10.3390/recycling9020028
Devanand Chelot, Shivnarain Ravichandran, Priyank Upadhyaya
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引用次数: 0

摘要

本文介绍了一种可持续的污水修复解决方案,利用重新利用的玻璃纤维增强化学复原力并保护环境。这种方法是将一根整体管道分成若干段,在调试过程中进行组装,目的是降低安装和运输成本,尤其是在交通不便的地区。每个管段都由多层玻璃纤维复合夹层组成,并用回收玻璃纤维增强的粘合剂连接。玻璃纤维增强塑料(GFRP)管道的核心是浸渍了树脂的混合砂,外层用于抗冲击,内层用于防腐蚀。通过 10,000 小时的应变腐蚀研究,评估了玻璃纤维增强塑料(GFRP)管道在硫酸中的抗化学腐蚀性能。表观箍筋拉伸试验评估了暴露前后的机械完整性。实验结果表明,采用回收玻璃纤维粘合剂的榫槽连接(TGJ)的两件式管道的长期弯曲应力和破坏应变%均优于单件式管道。这种改进归功于 TGJ 更强的承载能力和耐化学性。两件式管道的失效应变率(1.697%)高于整体式管道(1.2613%)。两件式管道的长期弯曲应力为 119.94 兆帕,而单元式管道在 50 年时达到 93.48 兆帕。成本分析支持采用两片式管道,而不是单元式管道,因为两片式管道可减少 40% 的碳排放和运输成本。新颖之处在于,通过在 TGJ 中加入磨制玻璃纤维加固材料,多片式管道具有更强的化学韧性。应变腐蚀试验需要很长时间才能完成,因此需要一种加速试验来改进当前推荐的试验标准。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A Sustainable Solution with Improved Chemical Resilience Using Repurposed Glass Fibers for Sewage Rehabilitation Pipes
This paper introduces a sustainable sewage rehabilitation solution, utilizing repurposed glass fibers for enhanced chemical resilience and environmental conservation. The approach involves dividing a unitary pipe into segments, assembled during commissioning, aiming to reduce installation and transportation costs, particularly in less accessible areas. Each pipe segment comprises a multi-layered glass fiber composite sandwich, joined by an adhesive reinforced with recycled glass fibers. The glass fiber-reinforced plastic (GFRP) pipe features a core of blended sand impregnated with resin, an outer layer for impact resistance, and an inner layer to prevent corrosion. Chemical resilience is assessed through a 10,000 h strain corrosion study exposing both unitary and two-piece circular GFRP pipes to sulfuric acid in a deflected condition. An apparent hoop tensile test evaluates mechanical integrity before and after exposure. The experimental results reveal that the two-piece pipe with a tongue and groove joint (TGJ) with recycled glass fiber adhesive exhibits superior long-term bending stress and failure strain % compared to unitary pipes. This enhancement is attributed to the TGJ’s improved load-bearing capability and chemical resistance. The failure strain % of the two-piece pipe (1.697%) is higher compared to the unitary pipe (1.2613%). The long-term bending stress of the two-piece pipe obtained is 119.94 MPa whereas the unitary pipe reaches 93.48 MPa at the 50-year mark. The cost analysis supports the adoption of the two-piece pipe over unitary pipes due to a 40% reduction in carbon emissions and transportation cost. The novelty lies in the utilization of multi-piece pipes with enhanced chemical resilience, achieved through the incorporation of milled fiberglass reinforcements in the TGJ. Strain corrosion tests take a long time to perform; hence, an accelerated test is needed to improve the current recommended testing standard.
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来源期刊
Recycling
Recycling Environmental Science-Management, Monitoring, Policy and Law
CiteScore
6.80
自引率
7.00%
发文量
84
审稿时长
11 weeks
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