Chemical and electrochemical pathways to low-carbon iron and steel

Kerry Rippy, Robert T. Bell, Noemi Leick
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Abstract

Currently, the iron and steel industry is responsible for 7% of global CO2 emissions. In this review, we summarize the operational principles of current emissions-intensive steelmaking technologies and review emerging low- and zero-carbon technologies that could substantially reduce emissions. Current technologies that are discussed include blast furnaces, electric arc furnaces, and smelting. Promising low-carbon routes include use of alternative reductants for ore processing (hydrogen direct reduction, hydrogen plasma-smelting, hydrogen smelting, and ammonia-based reduction), electrolytic iron production (with aqueous and molten oxide electrolytes) and biocarbon-based electric arc furnace operation. Advantages of each approach are presented, and remaining research hurdles are identified.

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实现低碳钢铁的化学和电化学途径
目前,钢铁行业的二氧化碳排放量占全球总量的 7%。在本综述中,我们总结了当前排放密集型炼钢技术的运行原理,并回顾了可大幅减少排放的新兴低碳和零碳技术。讨论的现有技术包括高炉、电弧炉和冶炼。有前景的低碳路线包括使用替代还原剂进行矿石加工(氢直接还原、氢等离子熔炼、氢冶炼和氨还原)、电解铁生产(使用水性和熔融氧化物电解质)和基于生物碳的电弧炉操作。介绍了每种方法的优点,并指出了剩余的研究障碍。
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