Ali Odeh, Omar S. Taha, Mahmoud N. Almakhadmeh, Ahmad Al-Rababah, Amin Al-Fakih
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引用次数: 0
Abstract
Concrete production significantly contributes to CO2 emissions and depletion of natural resources, leading to substantial environmental concerns. The integration of polymers into concrete has emerged as a promising innovative solution aimed at overcoming inherent limitations of traditional concrete, including brittleness, susceptibility to tracking, environmental degradation, and substantial ecological impacts. This systematic review thoroughly investigates the properties, sustainability implications, and practical challenges associated with polymer-based concrete (PBC), particularly focusing on polymer concrete composites (PCC) and polymer-modified concrete (PMC) detailing their composition, mechanical behavior, and durability. A comprehensive analysis was conducted by synthesizing data from peer-reviewed studies retrieved from key databases including Scopus, Web of Science, Google Scholar, and ScienceDirect spanning from 1990 to 2024. Results of this analysis demonstrate that PBC significantly improves mechanical and durability properties, showcasing notable enhancements in tensile, flexural, and compressive strengths, along with superior resistance to chemical attacks and environmental degradation such as freeze–thaw cycles and moisture ingress, compared to conventional concrete. Furthermore, incorporating recycled materials into polymer-based concrete contributes to waste reduction and environmental sustainability by lowering the carbon footprint. Despite these considerable advantages, widespread adoption of PBC is constrained by challenges such as higher initial investment costs, processing complexities, limited awareness and acceptance within the construction industry, and insufficient availability of long-term performance data from field applications. The review concludes that polymer-based concrete offers substantial potential to enhance structural performance and advance sustainability goals within the construction sector. However, it emphasizes the critical need for further targeted research to optimize polymer.
混凝土生产大大增加了二氧化碳的排放和自然资源的消耗,导致了严重的环境问题。聚合物集成到混凝土中已经成为一种有前途的创新解决方案,旨在克服传统混凝土的固有局限性,包括脆性、易受跟踪、环境退化和重大生态影响。本系统综述深入研究了聚合物基混凝土(PBC)的性能、可持续性影响和实际挑战,特别是聚合物混凝土复合材料(PCC)和聚合物改性混凝土(PMC),详细介绍了它们的组成、机械行为和耐久性。通过综合从Scopus、Web of Science、b谷歌Scholar和ScienceDirect等关键数据库检索1990年至2024年的同行评议研究数据,进行了全面分析。分析结果表明,与传统混凝土相比,PBC显著提高了机械性能和耐久性,在拉伸、弯曲和抗压强度方面表现出显著的增强,以及对化学侵蚀和环境退化(如冻融循环和受潮)的优越抵抗能力。此外,通过降低碳足迹,将回收材料纳入聚合物基混凝土有助于减少废物和环境可持续性。尽管有这些可观的优势,但PBC的广泛采用受到一些挑战的限制,如初始投资成本较高、处理复杂性、建筑行业的认识和接受程度有限,以及现场应用的长期性能数据的可用性不足。该审查的结论是,聚合物基混凝土在提高结构性能和推进建筑部门的可持续发展目标方面具有巨大的潜力。然而,它强调了进一步有针对性的研究以优化聚合物的迫切需要。
期刊介绍:
Environmental Science and Pollution Research (ESPR) serves the international community in all areas of Environmental Science and related subjects with emphasis on chemical compounds. This includes:
- Terrestrial Biology and Ecology
- Aquatic Biology and Ecology
- Atmospheric Chemistry
- Environmental Microbiology/Biobased Energy Sources
- Phytoremediation and Ecosystem Restoration
- Environmental Analyses and Monitoring
- Assessment of Risks and Interactions of Pollutants in the Environment
- Conservation Biology and Sustainable Agriculture
- Impact of Chemicals/Pollutants on Human and Animal Health
It reports from a broad interdisciplinary outlook.