Iron production by electrochemical reduction of its oxide for high CO2 mitigation (IERO): final report

Medientyp: E-Book

Titel: Iron production by electrochemical reduction of its oxide for high CO2 mitigation (IERO) : final report

Beteiligte: Lavelaine de Maubeuge, Hervé [Verfasser:in]; Van der Laan, Sieger [Verfasser:in]; Hita, Alain [Verfasser:in]; Olsen, Karen [Verfasser:in]; Serna, Mónica [Verfasser:in]; Haarberg, Geir Martin [Verfasser:in]; Frade, Jorge [Verfasser:in]

Körperschaft: Europäische Kommission, Research Fund for Coal and Steel

Erschienen: Luxembourg: Publications Office of the European Union, 2016

Umfang: 1 Online-Ressource (108 Seiten, 8,60 MB); Illustrationen

Sprache: Englisch

DOI: 10.2777/084034

ISBN: 9789279612763

Identifikator:

Verlags-, Produktions- oder Bestellnummern: Sonstige Nummer: KI-NA-28065-EN-N

Schlagwörter: iron and steel industry ; research project ; steel ; plate ; materials technology ; iron and steel product ; metal coating ; industrial research ; technological process ; flat product ; research report ; Forschungsbericht

Entstehung:

Anmerkungen:

Beschreibung: IERO project aims at developing a breakthrough technology to produce steel without any direct CO2 emissions. The economic model of this new route shows that the conditions for electrolysis to be the dominant technology of the steel industry in 2035 are a high carbon value of 150€.t-1CO2 and a price ratio of electricity on coal lower than three. Its environmental benefit depends on the availability of low carbon energy resources. The low temperature ULCOWIN technology has been studied at laboratory level. Results indicate that the electrochemical process is very fast, the key parameter to reach high efficiency is the transfer of the particles. Among all the catalysts considered for anode, the cobalt spinel Ni/Co3O4 is the most efficient at high current densities. At pilot level, an ULCOWIN cell version n°2 has been developed with which eighteen experimental tests have been carried out. By process improvement, the cell technology checks most of the initial specifications. Most notably, the deposit can be harvested in situ and thick deposits can be obtained. Upscalability can be considered with the design of a cheap version of the cell called ULCOWIN version N°3 incorporating the knowhow acquired during production campaigns. The high temperature electrolysis route has been studied at laboratory level. Mechanistic studies show that cathodic reaction in salt and slag is limited by transport. All the components of a process have been defined: anode is a substituted spinel, slag is a silicoaluminate fused by addition of magnesia and refractory containment is alumina surrounded with wool.

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