Mikael Odenberger

Dr. Mikael Odenberger

orcid

Research Focus & Metrics

Academic Career Length

22Years (2005-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 January 2022 in International Journal of Hydrogen Energy
Verified
Journal Article
Open access
SÖSimon Öberg
Simon Öberg
MOMikael Odenberger
Mikael Odenberger
FJFilip Johnsson
Filip Johnsson

1 December 2016 in Applied Energy
Verified
Journal Article
Closed access
ENEmil Nyholm
Emil Nyholm
JGJoel Goop
Joel Goop
MOMikael Odenberger
Mikael Odenberger
FJFilip Johnsson
Filip Johnsson

1 April 2018 in Energy Conversion and Management
Verified
Journal Article
Closed access
DRDmytro Romanchenko
Dmytro Romanchenko
JKJohan Kensby
Johan Kensby
MOMikael Odenberger
Mikael Odenberger
FJFilip Johnsson
Filip Johnsson

1 February 2019 in Applied Energy
Verified
Journal Article
Closed access
MTMaria Taljegard
Maria Taljegard
LGL. Göransson
L. Göransson
MOMikael Odenberger
Mikael Odenberger
FJF. Johnsson
F. Johnsson

1 June 2018 in Energy
Verified
Journal Article
Closed access
LRLina Reichenberg
Lina Reichenberg
FHFredrik Hedenus
Fredrik Hedenus
MOMikael Odenberger
Mikael Odenberger
FJFilip Johnsson
Filip Johnsson

27 July 2020 in Energies
Verified
Journal Article
Open access
PDF file
Alla ToktarovaAlla Toktarova
Alla Toktarova
IKIda Karlsson
Ida Karlsson
JRJohan Rootzén
Johan Rootzén
LGLisa Göransson
Lisa Göransson
MOMikael Odenberger
Mikael Odenberger
FJFilip Johnsson
Filip Johnsson
The concept of techno-economic pathways is used to investigate the potential implementation of CO2 abatement measures over time towards zero-emission steelmaking in Sweden. The following mitigation measures are investigated and combined in three pathways: top gas recycling blast furnace (TGRBF); carbon capture and storage (CCS); substitution of pulverized coal injection (PCI) with biomass; hydrogen direct reduction of iron ore (H-DR); and electric arc furnace (EAF), where fossil fuels are replaced with biomass. The results show that CCS in combination with biomass substitution in the blast furnace and a replacement primary steel production plant with EAF with biomass (Pathway 1) yield CO2 emission reductions of 83% in 2045 compared to CO2 emissions with current steel process configurations. Electrification of the primary steel production in terms of H-DR/EAF process (Pathway 2), could result in almost fossil-free steel production, and Sweden could achieve a 10% reduction in total CO2 emissions. Finally, (Pathway 3) we show that increased production of hot briquetted iron pellets (HBI), could lead to decarbonization of the steel industry outside Sweden, assuming that the exported HBI will be converted via EAF and the receiving country has a decarbonized power sector.