Aug 2026· Journal of Engineering Research and Reports· Vol 28, pp. 54-64· 0 citations
Abstract
Nigeria's cement, iron and steel, and chemical industries account for a substantial share of the country's industrial energy use. This study applies the Low Emissions Analysis Platform (LEAP) to project industrial energy demand and greenhouse gas emissions to 2060 under four scenarios: a Baseline reflecting current trends; a Realistic Scenario based on existing policy commitments; a Light-Fossil (LF) pathway; and a Green-Fuel (GF) pathway assuming widespread adoption of carbon capture and storage (CCS), electric arc furnaces, and hydrogen. The three subsectors respond differently to the same assumptions. Cement shows the widest range of outcomes: energy demand falls by 61%, from 60.5 million gigajoules (GJ) in 2015 to 23.55 million GJ in 2060, under the GF pathway, but rises by 522% to 376.78 million GJ under the Realistic Scenario, which assumes continued reliance on conventional clinker production. The chemical sector is the most responsive to fuel switching, with demand falling by 79.6% under GF conditions, compared with a 259% rise in the Baseline. Iron and steel are an outlier: even under GF assumptions, energy demand rises by approximately 13% to 36.60 million GJ by 2060 because electrification and hydrogen-based direct-reduction routes change the source of energy rather than eliminate the need for it. These results indicate that a uniform decarbonisation policy is unlikely to serve Nigeria's industrial sector effectively. Cement decarbonisation depends on CCS deployment and clinker substitution, chemical-sector decarbonisation on electrification and green-hydrogen feedstocks, and iron and steel decarbonisation on a slower, technology-led transition supported by a more reliable grid. The findings provide a sector-differentiated basis for prioritising investment and policy under Nigeria's Energy Transition Plan and its 2060 net-zero target.
The iron and steel industry is one of the most carbon-intensive industrial sectors and therefore faces an urgent need to transition toward low-carbon production technologies such as hydrogen-based metallurgy. This study presents a techno-economic and environmental assessment of converting the 6 Mt/yr (suggested) Tarant...
Abdul Rehman Soomro, A. Gambelli, F. Rossi· Energies· 0 citations
Heavy industry — steel, cement, chemicals, and refining — accounts for roughly a quarter to a third of global CO₂
emissions, and its high process temperatures and reaction chemistry (calcination, ore reduction) resist simple electrification or
fuel-switching. This paper surveys four decarbonization pathways from a proc...
Ashok Agarwal· International Journal of Inn...· 0 citations
Southeast Asia’s steel sector faces the dual challenge of expanding production to meet rising demand while reducing carbon emissions. This study develops a bottom-up cost minimization model with 19 steelmaking technologies for six Southeast Asian countries over 2020–2070 and applies a three-dimensional scenario design...
Tae Yong Jung, Yoonha Lee, Hyunkyung Joo et al.· Environmental Research Lette...· 0 citations
Steel reinforcement bars are an essential structural material in construction and a significant source of greenhouse gas emissions. The review of published environmental production declarations (EPDs) based on India-specific life cycle assessment (LCA) shows considerable variability due to differences in technologies,...
Satyajit Malode, R. Gettu, Anusha S. Basavaraj et al.· The Indian Concrete Journal· 0 citations
Cement production is a major source of CO2 emissions. In the European Union, the Emissions Trading System is the cornerstone instrument to incentivize industry decarbonization, including cement. However, major uncertainties prevail regarding allowance prices, carbon-capture investment costs, and the availability of CO2...
Paul Tautorat, Darius Sultani, Natalija Ljubic et al.· Nature Communications· 0 citations
The petrochemical industry is responsible for 13% of global industrial and 3.5% of total greenhouse gas emissions, yet a globally consistent facility-level emissions inventory is lacking. Here we present a bottom-up assessment of historical, current and prospective emissions from 37,379 production facilities, cover...
Fanran Meng, Luke Cullen, Philip Mitchell et al.· Nature Sustainability· 1 citation
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