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How these 5 steel producers are taking action to decarbonize steel production
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- Steel is crucial for engineering, construction and energy transition with rising demand but produces 7% of global greenhouse gas (GHG) emissions.
- Achieving near-zero emissions steel by 2030 requires ambitious, innovative technologies and collaboration among steel purchasers, producers and enabling technology companies.
- Several steel manufacturers, including producers in Brazil, Australia, Spain and the United Arab Emirates (UAE), are leading the way towards near-zero emissions steel.
The International Energy Agency says that steel produces 7% of the world’s GHG emissions – 3.5 billion tonnes annually – mostly from iron, the main input to steelmaking (70% of steel production). The other 30% of global steel production comes from electric arc furnaces that use scrap steel as an input. As steel demand rises by up to 30% by 2050, according to the Mission Possible Partnership, the industry must continue to produce primary steel as recycling scrap steel alone cannot fulfil this demand.
However, by 2030, near-zero emissions steel at scale can be achieved by using ambitious, innovative technologies and collaboration between steel purchasers, producers and companies providing enabling technologies. But significant barriers exist in the production process, substantially increasing costs. For instance, iron and steel production facilities are costly and designed for longevity, complicating their replacement.
Green premiums on lower-carbon products may disincentivize potential buyers, making it harder for steelmakers to invest in greener production processes since they must have confidence that their customers will bear at least some of this burden. In addition, not all the technology needed to produce near-zero emissions steel is currently available commercially. Some methods are still in the nascent stages of development and unprepared for large-scale implementation.
One avenue towards achieving near-zero emissions in steel production involves electrifying key processes e.g. using hydrogen in the direct reduction of iron. However, this transition necessitates renewable energy sources that have not yet been scaled to meet such demands.
Source: weforum.org
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