基于生物材料的混凝土复合材料:生物炭、纤维素和木质素综述

Ravi Patel , Amin Babaei-Ghazvini , Matthew J. Dunlop , Bishnu Acharya
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引用次数: 0

摘要

近年来,温室气体排放量明显激增,导致全球气候严重变暖,而建筑行业被认为是其中一个重要因素,尤其是水泥生产过程中的二氧化碳排放。混凝土是全球使用量第二大的材料,它的广泛使用加剧了有害温室气体的排放。本文介绍了一种在混凝土材料中捕获碳的新方法,即采用二氧化碳吸附剂,协同增强碳化反应,从而提高捕获效率。生物炭因其强大的二氧化碳吸附能力以及生态友好、经济高效和低碳的生产工艺而成为碳捕集的理想候选材料。例如,通常 1 吨生物炭可以从环境中封存 3 吨二氧化碳。已有多项研究探讨了将生物炭融入混凝土材料的问题,旨在改善成型混凝土复合材料的机械性能、耐久性能、热性能以及整体功能。除了在提高混凝土性能方面的作用外,生物炭还是一种有效的碳封存剂,无论是否经过改性,本文也将对此进行综述。与此同时,有关混凝土复合材料中纤维素基材料的加固性能和选择性二氧化碳吸附能力的研究也在进行中。值得注意的是,纤维素基材料具有丰富性、生物可降解性、可再生性和成本效益高的特点,有望成为传统加固材料的替代品。本文全面回顾了在混凝土复合材料应用中使用生物炭和纤维素材料的最新进展。重点是评估添加了生物炭和纤维素的混凝土复合材料的耐久性、机械性能和碳捕集潜力。对这一领域研究进展的综述有助于阐明当前的知识状况,并在可持续建筑实践的背景下为生物炭和纤维素增强混凝土复合材料的未来前景提供见解。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Biomaterials-based concrete composites: A review on biochar, cellulose and lignin

Biomaterials-based concrete composites: A review on biochar, cellulose and lignin

In recent years, a discernible surge in greenhouse gas emissions has precipitated severe global warming, with the construction industry identified as a notable contributor, particularly through carbon dioxide emissions from cement production. As concrete stands as the second most extensively utilized material globally, its pervasive use amplifies the release of potent greenhouse gases. This paper introduces a novel approach to carbon capture in concrete materials by employing CO2 adsorbents that synergistically enhance the carbonization reaction, thereby augmenting capture efficiency. Biochar emerges as a promising candidate for carbon capture due to its robust CO2 adsorption capacity and its eco-friendly, cost-effective, and low-carbon production process. For instance, typically 1 ton of biochar has potential to sequester 3 ton of carbon dioxide from the environment. Various studies have explored the integration of biochar into concrete materials, aiming to improve mechanical, durability, and thermal properties, as well as the overall functionality of formed concrete composites. Beyond its role in enhancing concrete properties, biochar presents itself as an effective carbon sequestering agent with or without modification which is also reviewed in this paper. Concurrently, research efforts are underway to investigate the reinforcement properties and selective CO2 sorption capabilities of cellulose-based materials in concrete composites. Noteworthy attributes such as abundance, biodegradability, renewability, and cost-effectiveness position cellulose-based materials as promising alternatives to traditional reinforcing agents. This paper provides a comprehensive review of the latest advancements in the utilization of biochar and cellulose materials in concrete composite applications. Emphasis is placed on evaluating the durability, mechanical properties, and carbon capture potential of concrete composites augmented with biochar and cellulose. The synthesis of research progress in this domain serves to elucidate the current state of knowledge and offers insights into the future prospects of biochar and cellulose-enhanced concrete composites in the context of sustainable construction practices.

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