CO2bion

Integrated sustainable process for ionic liquid-based carbon dioxide capture and its subsequent biotransformation into fuels and chemicals from extremophiles

Global Challenge: CO₂ Emissions and Climate Change

The increasing concentration of carbon dioxide (CO₂) in the atmosphere is a major driver of the greenhouse effect and climate change. High-emission industrial sectors significantly contribute to this problem, creating an urgent need for innovative strategies that reduce their carbon footprint while remaining technologically and economically viable.

Engineering Approaches for CO₂ Capture and Utilization

In response to this challenge, there has been rapidly growing interest in the development of advanced engineering solutions for:

› Efficient CO₂ capture and storage (CCS)

› Conversion of captured CO₂ into industrially relevant fuels and chemicals

Particular attention is currently given to integrated CO₂ capture and conversion processes, which eliminate the need for long-term CO₂ storage and enable direct utilization of carbon dioxide as a feedstock.

The CO₂BION Concept: Integrated Capture and Bioconversion

CO₂BION proposes an innovative, integrated process that combines:

    › Ionic liquid–based membrane systems for efficient CO₂ capture

    › Non-photosynthetic microbial CO₂ bioconversion using extremophilic bacteria

These microorganisms are capable of utilizing CO₂ as their primary carbon source, enabling the sustainable production of biofuels and value-added chemicals.

Non-photosynthetic CO₂ bioconversion has gained significant momentum in metabolic engineering and industrial biotechnology. Unlike conventional biomass-based microbial processes, this approach:

  • Avoids dependence on agricultural feedstocks

  • Reduces competition with food and nutrition resources

  • Enables more sustainable carbon utilization pathways

This makes it a promising alternative to traditional bio-based production routes.

Non-Photosynthetic CO₂ Bioconversion as an Alternative Pathway

Alignment with HFRI Strategy and Scientific Priorities

The project addresses a critical environmental issue through engineering-driven solutions, contributing to:

  • Renewable energy production (biofuels)

  • Development of specialized chemicals

  • Sustainable industrial technologies