Tecnologia em Metalurgia, Materiais e Mineração
https://tecnologiammm.com.br/article/doi/10.4322/2176-1523.20212409
Tecnologia em Metalurgia, Materiais e Mineração
Artigo Original

The impact of the emission trading scheme on the european steel industry and the future trends for technologies for obtaining primary iron

Jean Philippe Santos Gherardi de Alencar, Wander Luiz Vasconcelos, Valdirene Gonzaga de Resende

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Abstract

Climate change is often subject of discussions around the world that implies in several initiatives that support the reduction of greenhouse gases (GHG). Currently, countries that signed the Paris Agreement in 2015 have plans to restrict GHG emissions based on the NDC (Nationally Determined Contributions) established. These reductions are expected to come also from industries, including the steel one. Some countries and regions are highlighted for having more developed policies than the rest of the world, such as Europe, which since 2005 has been implementing an Emission Trading Scheme (ETS). In this context, the European steel industry has been facing challenges which impose a need for disruptive technology innovation. This work presents four different European steel mills from different countries. A variety of finished products were analyzed, and it was found that in all four cases there is a deficit between the verified GHG emissions and the licenses granted for emission. The specific emissions per ton of steel and energy efficiency of each plant play an important role in justifying these differences in CO2 balance among the plants. Therefore, there are multiple initiatives in progress involving steel producers in Europe that encourage the use of new technologies and modified routes to reduce and mitigate the volume of emissions in the steel production chain. The success of these initiatives from a technical and an economic point of view is the path to sustainability, competitiveness and value generation for the future industry.

Keywords

Greenhouse gases; Emissions; Ironmaking; Steelmaking.

Referências

1 Mathiesen L, Maestad O. Climate policy and the steel industry: achieving global emission reductions by an incomplete climate agreement. Energy Journal. 2004;25(4):91-114.
2 United Nations. Climate change: the Paris agreement. 2017 [acesso em 20 maio 2020]. Disponível em: https://unfccc.int/process-and-meetings/the-paris-agreement/the-paris-agreement
3 Wadhwa D, Mani MS, Hussein Z, Gopalakrishnan BN. Paris climate agreement and the global economy: winners and losers. The World Bank; 2018.
4 Change OC. World Meteorological Organization. Intergovernmental Panel on Climate Change; 2007. 
5 European Commission. EU ETS handbook. Brussels; 2015 [acesso em 20 maio 2020]. Disponível em: https://ec.europa.eu/clima/sites/clima/files/docs/ets_handbook_en. pdf
6 World Steel Association. Steel’s contribution to a low carbon future and climate resilient societies. 2018 [acesso em 20 maio 2020]. Disponível em: https://www.worldsteel.org/en/dam/jcr:7ec64bc1-c51c-439b-84b8-94496686b8c6/Position_paper_climate_2020_vfinal.pdf
7 International Carbon Action Partnership. Emissions trading worldwide: status report 2018. Berlin: ICAP; 2018.
8 International Carbon Action Partnership. ETS map. 2019 [acesso em 20 maio 2020]. Disponível em: https://icapcarbonaction.com/en/ets-map?etsid=79
9 Borghesi S, Montini M, Barreca A. The EU ETS: the pioneer - main purpose, structure and features. In: Borghesi S,Montini M, Barreca A, editors. The European emission trading system and its followers. Cham: Springer; 2016. p. 1-28.
10 European Commission. Emission Trading System (EU ETS). EU community independent transaction log. Climate change, environment. 2018.
11 Tata Steel. Sustainability report 2018/2019. 2019 [acesso em 20 maio 2020]. Disponível em: https://www.sabprofiel.com/assets/user/Documentatie/Tata%20Steel%20Sustainability%20Report%20FY18-19_English.pdf
12 Voestalpine. Enviromental statement. 2019 [acesso em 20 maio 2020]. Disponível em: https://www.voestalpine.com/group/static/sites/group/.downloads/en/group/2019-environmental-statement.pdf
13 Thyssenkrupp. Annual report 2018/2019. 2019 [acesso em 20 maio 2020]. Disponível em: https://ucpcdn.thyssenkrupp.com/_legacy/UCPthyssenkruppAG/assets.files/media/investoren/berichterstattung-publikationen/update-21.11.2019/en/thyssenkrupp-gb-2018-2019-en-web_neu.pdf
14 ArcelorMittal. Fact Book 2018. 2019 [acesso em 20 maio 2020]. Disponível em: https://factbook2018.arcelormittal.com/~/media/Files/A/Arcelormittal-Factbook-2018/AM_FactBook_2018.pdf
15 Sormann A, Seftejani MN, Schenk J, Spreitzer D. Hydrogen: the way to a carbon free steelmaking. In: AdMet; 2018; Lviv, Ukraine. Austria: voestalpine Stahl Linz GmbH; 2018.
16 Smil V. Still the iron age: iron and steel in the modern world. Amsterdam: Butterworth-Heinemann; 2016.
17 Arens M, Worrell E, Eichhammer W, Hasanbeigi A, Zhang Q. Pathways to a low-carbon iron and steel industry in the medium-term- the case of Germany. Journal of Cleaner Production. 2017;163:84-98.
18 Hille V, Redenius A. SALCOS-schrittweise, flexible Dekarbonisierung auf basis bewährter Technologie. Stahl und Eisen. 2018;138(11):95-101.
19 Dorndorf M, Duarte P, Argenta P, Maggiolino S, Marcozzi M. Transforming the steelmaking process. Steel Times
International. 2018;42(7):29-32.
20 HYBRIT. Summary of findings from HYBRIT pre-feasibility study 2016-2017. 2018 [acesso em 20 maio 2020]. Disponível em: https://ssabwebsitecdn.azureedge.net/-/media/hybrit/files/hybrit_brochure.pdf
21 Åhman M, Olsson O, Vogl V, Nyqvist B, Maltais A, Nilsson LJ, et al. Hydrogen steelmaking for a low-carbon economy. Stockholm: Stockholm Environment Centre and Lund University, 2018.
22 Warner NA. Zero CO2 steelmaking in a future low carbon economy. 1. Energy conservation in smelting hematite ore directly to refined iron slab. Mineral Processing and Extractive Metallurgy. 2018;127(2):73-83.
23 Yilmaz C, Wendelstorf J, Turek T. Modeling and simulation of hydrogen injection into a blast furnace to reduce carbon dioxide emissions. Journal of Cleaner Production. 2017;154:488-501.
24 Tacke KH, Steffen R. Hydrogen as a reductant for iron ores and the effects on CO2  formation. In: Proceedings of International Symposium on Global Environment and Steel Industry (ISES’03); 2003; Beijing, China. Beijing: Chinese Society for Metals; 2003.
25 Mosca L, Medrano Jimenez JA, Wassie SA, Gallucci F, Palo E, Colozzi M, et al. Process design for green hydrogen production. International Journal of Hydrogen Energy. 2020;45(12):7266-7277.
26 Noldin J. Decarbonization and green eletricity in the steel industry. ABM Magazine. 2020 [acesso em 16 June 2020];76:22-32. Disponível em: https://revistaabmdigital.com.br/edicoes/655/#p=22


Submetido em:
01/07/2020

Aceito em:
16/03/2021

61a4e5bda9539524f45fc615 tmm Articles
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