Imagine a giant microwave that doesn't pop corn, but instead breaks down biogas into two useful things: clean hydrogen gas and solid carbon. Instead of letting biogas waste escape or burning it, this process traps the carbon in a solid form that can be buried in soil or used to make hard materials. It's like turning a greenhouse gas into a useful mineral and a clean fuel simultaneously.
Biogas plants often face high costs for gas separation and struggle to find high-value uses for the carbon in their feedstock. Current methods often release CO2 or require energy-intensive processing to extract hydrogen.
A scalable microwave-heated fluidized catalytic reactor and a downstream process to convert biogas into hydrogen and solid carbon.
If you are a fertilizer producer dealing with the need for sustainable soil enhancers — this project developed a way to turn biogas into solid carbon materials that enhance agriculture soil properties. This allows for long-term carbon storage directly in the ground.
If you are a materials manufacturer dealing with high raw material costs for carbon — this project developed a renewable carbon source derived from biogas to produce silicon carbide materials. This replaces traditional carbon sources with a negative-emission alternative.
If you are a plant operator dealing with expensive gas separation processes — this project developed a microwave-heated reactor that avoids energy-intensive separation to produce H2 and power at a competitive cost. It can be deployed as small, delocalized units or large-scale plants.
Based on available project data, the technology is designed for low CAPEX to allow for the deployment of both small delocalized units and large-scale plants, though specific price points are not provided.
Yes, the project focuses on a scaled-up microwave heated fluidized catalytic reactor. It aims to produce 0.6 Mt of green H2 by 2030 and up to 4 Mt per year by 2045.
Based on available project data, there is no specific mention of licensing terms or patent filings in the provided summary.
The technology is designed to be flexible, allowing for the deployment of small, delocalized biogas-to-power units or larger biogas-to-H2 and chemicals units depending on available infrastructure.
The project period is from 2022-09-01 to 2026-08-31.
The consortium is highly industry-oriented, with a 50% industry ratio consisting of 4 companies, including 3 SMEs. This balance between 2 universities, 1 research center (CNRS), and 4 industrial partners across 5 countries (BE, DE, FR, NL, PL) suggests a strong focus on commercial viability and practical scaling rather than pure academic research.
Contact CNRS (France) regarding the TITAN project coordination.
Contact SciTransfer to connect with the TITAN consortium for licensing or pilot partnerships.
