Hesham Ahmed
The iron and steel industry is still dependent on fossil coking coal. About 70% of the total steel production relies directly on fossil coal and coke inputs. Therefore, steel production contributes by ~7% of the global CO2 emission. The reduction of CO2 emission has been given highest priority by the iron- and steel-making sector due to the commitment of governments to mitigate CO2 emission according to Kyoto protocol. Utilization of auxiliary carbonaceous materials in the blast furnace and other iron-making technologies is one of the most efficient options to reduce the coke consumption and, consequently, the CO2 emission. The present review gives an insight of the trends in the applications of auxiliary carbon-bearing material in iron-making processes. Partial substitution of top charged coke by nut coke, lump charcoal, or carbon composite agglomerates were found to not only decrease the dependency on virgin fossil carbon, but also improve the blast furnace performance and increase the productivity. Partial or complete substitution of pulverized coal by waste plastics or renewable carbon-bearing materials like waste plastics or biomass help in mitigating the CO2 emission due to its high H2 content compared to fossil carbon. Injecting such reactive materials results in improved combustion and reduced coke consumption.
@article{b193b51c-6e7f-41c6-b263-4187a6a56ef6,
title={2018 Hesham M. Ahmed New Trends in the Application of Carbon Bearing Materials in Blast Furnace Iron Making min8120561},
author={Hesham Ahmed},
year={2026},
language={en}
}TY - JOUR TI - 2018 Hesham M. Ahmed New Trends in the Application of Carbon Bearing Materials in Blast Furnace Iron Making min8120561 AU - Hesham Ahmed PY - 2026 LA - en ER -
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