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生物炭生产技术及其在钢铁行业中的应用概述。

An overview of biochar production techniques and application in iron and steel industries.

作者信息

Ibitoye Segun E, Loha Chanchal, Mahamood Rasheedat M, Jen Tien-Chien, Alam Meraj, Sarkar Ishita, Das Partha, Akinlabi Esther T

机构信息

Department of Mechanical Engineering, Faculty of Engineering and Technology, University of Ilorin, P. M. B. 1515, Ilorin, Nigeria.

School of Engineering, Woxsen University, Kamkole Village, Sadasivpet, Sangareddy District, Hyderabad, Telangana, 502345, India.

出版信息

Bioresour Bioprocess. 2024 Jul 3;11(1):65. doi: 10.1186/s40643-024-00779-z.

Abstract

Integrating innovation and environmental responsibility has become important in pursuing sustainable industrial practices in the contemporary world. These twin imperatives have stimulated research into developing methods that optimize industrial processes, enhancing efficiency and effectiveness while mitigating undesirable ecological impacts. This objective is exemplified by the emergence of biochar derived from the thermo-chemical transformation of biomass. This review examines biochar production methods and their potential applications across various aspects of the iron and steel industries (ISI). The technical, economic, and sustainable implications of integrating biochar into the ISI were explored. Slow pyrolysis and hydrothermal carbonization are the most efficient methods for higher biochar yield (25-90%). Biochar has several advantages- higher heating value (30-32 MJ/kg), more porosity (58.22%), and significantly larger surface area (113 m/g) compared to coal and coke. However, the presence of biochar often reduces fluidity in a coal-biochar mixture. The findings highlighted that biochar production and implementation in ISI often come with higher costs, primarily due to the higher expense of substitute fuels compared to traditional fossil fuels. The economic viability and societal desirability of biochar are highly uncertain and vary significantly based on factors such as location, feedstock type, production scale, and biochar pricing, among others. Furthermore, biomass and biochar supply chain is another important factor which determines its large scale implementation. Despite these challenges, there are opportunities to reduce emissions from BF-BOF operations by utilizing biochar technologies. Overall, the present study explored integrating diverse biochar production methods into the ISI aiming to contribute to the ongoing research on sustainable manufacturing practices, underscoring their significance in shaping a more environmentally conscious future.

摘要

在当代世界追求可持续工业实践的过程中,将创新与环境责任相结合已变得至关重要。这两项紧迫任务激发了人们对开发优化工业流程方法的研究,以提高效率和效果,同时减轻不良的生态影响。生物质热化学转化产生的生物炭的出现就体现了这一目标。本综述考察了生物炭的生产方法及其在钢铁行业各个方面的潜在应用。探讨了将生物炭整合到钢铁行业中的技术、经济和可持续影响。慢速热解和水热碳化是获得较高生物炭产量(25%-90%)的最有效方法。与煤和焦炭相比,生物炭具有几个优点——更高的热值(30-32兆焦/千克)、更多的孔隙率(58.22%)和显著更大的表面积(113平方米/克)。然而,生物炭的存在通常会降低煤-生物炭混合物的流动性。研究结果强调,在钢铁行业生产和应用生物炭往往成本较高,主要原因是替代燃料比传统化石燃料成本更高。生物炭的经济可行性和社会可取性高度不确定,并且会因地点、原料类型、生产规模和生物炭定价等因素而有很大差异。此外,生物质和生物炭供应链是决定其大规模应用的另一个重要因素。尽管存在这些挑战,但利用生物炭技术仍有机会减少高炉-转炉操作的排放。总体而言,本研究探索将多种生物炭生产方法整合到钢铁行业中,旨在为正在进行的可持续制造实践研究做出贡献,强调它们在塑造更具环境意识的未来中的重要性。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/c769/11222365/50261c31ff14/40643_2024_779_Fig1_HTML.jpg

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