Oarga-Mulec Andreea, Luin Uroš, Valant Matjaz
University of Nova Gorica, Materials Research Laboratory Vipavska 11c Ajdovscina 5270 Slovenia
Green Technology Center Erjavčeva ulica 2 Nova Gorica 5000 Slovenia.
RSC Adv. 2024 Jul 1;14(29):20765-20779. doi: 10.1039/d4ra03565h. eCollection 2024 Jun 27.
Here is a comprehensive overview of iron's potential in low-carbon energy technologies, exploring applications like metal fuel combustion, iron-based batteries, and energy-carrier cycles, as well as sustainable approaches for production and recycling with a focus on reducing environmental impact. Iron, with its abundance, safety, and electrochemical characteristics, is a promising material to contribute to a decarbonized future. This paper discusses the advancements and challenges in iron-based energy storage technologies and sustainable iron production methods. Various innovative approaches are explored as energy storage solutions based on iron, like advancements in thermochemical Fe-Cl cycles highlight the potential of iron chloride electrochemical cycles for long-term high-capacity energy storage technology. Additionally, the utilization of iron as a circular fuel in industrial processes demonstrates its potential in large-scale thermal energy generation. Sustainable iron production methods, such as electrolysis of iron chloride or oxide and deep eutectic solvent extraction, are investigated to reduce the carbon footprint in the iron and steel industry. These findings also show the importance of policy and technology improvements that are vital for the widespread use and recycling of iron-based tech, stressing the need for collaboration toward a sustainable future.
以下是对铁在低碳能源技术中的潜力的全面概述,探讨了金属燃料燃烧、铁基电池和能量载体循环等应用,以及以减少环境影响为重点的可持续生产和回收方法。铁因其丰富性、安全性和电化学特性,是助力脱碳未来的一种有前景的材料。本文讨论了铁基储能技术和可持续铁生产方法的进展与挑战。探索了各种基于铁的创新方法作为储能解决方案,如热化学铁 - 氯循环的进展突出了氯化铁电化学循环在长期高容量储能技术方面的潜力。此外,铁在工业过程中作为循环燃料的利用展示了其在大规模热能生产中的潜力。研究了可持续的铁生产方法,如氯化铁或氧化铁的电解以及深共熔溶剂萃取,以减少钢铁行业的碳足迹。这些发现还表明政策和技术改进对于铁基技术的广泛应用和回收至关重要,强调了为实现可持续未来而开展合作的必要性。