Go directly to the text content

Bio-syngas -Driven Fossil-Free Ferrochrome Production (Bio4FeCr)

Important results from the project

The Bio4FeCr project explored bio-syngas as a sustainable alternative to fossil-based reducing agents for chromite ore reduction. Results confirmed bio-syngas effectively reduces and carburizes ore. Environmental analysis indicated charging up to 22% of pre-reduced FeCr (using bio-syngas) results in lowering the GWP per kg chromium by 21%. In addition, valuable collaborations with industrial partners were created, opening the way for future research & development in sustainable metal production

Expected long term effects

The Bio4FeCr project demonstrated the potential of composition-modified bio-syngas as a sustainable reducing agent for the ferrochromium industry. By reducing fossil fuel dependence, it can significantly cut greenhouse gas emissions and improve environmental performance. Validated across multiple chromite ore sources and strengthened by industry collaboration, the technology promotes broader adoption and aligns with global climate and sustainability goals.

Approach and implementation

The project was implemented through combined theoretical modeling and experimental tests. Activities included evaluating bio-syngas as a reducing agent, assessing various pre-treatment methods, and conducting LCA. The planned activities were appropriate, and overall, the project developed largely according to schedule. Cooperation with industry partners worked effectively, though minor delays occurred due to equipment issues. No significant external factors disrupted progress.

The text has been written by the project team. The content is copied from the funding agency’s website and has not been reviewed by the Program Office.

Project title
Bio-syngas -Driven Fossil-Free Ferrochrome Production (Bio4FeCr)
Registration number
2024-02738
Coordinator
Luleå University of Technology - Inst för samhällsbygg & naturresurser
Call
2024-01480 Impact Innovation: Feasibility studies within Technological Action Areas in the program Metals & Minerals
Project duration
November 2024 - June 2025
Project type
Feasibility study
Responsible funding agency
Vinnova

For further information about the project, please visit Vinnova