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ECOMET

Efficient upgrading of CO to CH₄  using steam inside a protonic ceramic electrolysis cell (PCEC)

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Projects

Efficient upgrading of CO₂ to CH₄ using steam inside a protonic ceramic electrolysis cell (PCEC)

Key Facts

Funding Agency

PTJ (DE) & NWO (NL)

Project Call

"Electro-chemical Materials and Processes for Green Hydrogen and Green Chemistry” (DE-NL-ECCM)

Duration

01/05/2024 - 30/04/2028

Coordinator

EIFER

Partners

WZR ceramic solutions GmbH (WZR)
Forschungszentrum Jülich GmbH (FZJ)
Universiteit Twente (UT)
Shell Global Solutions International B.V. (SHELL)

Objective

  • Development of an innovative P₂G technology, a 2-in-1 combination of a PCEC and a chemical reactor able to directly convert CO₂ and H₂O into e-CH₄ to simplify existing methanation process and to improve system efficiencies due to better internal heat recovery and consequently lower system costs.  
  • Technology developed and upscaling until TRL₄ by investigation of innovative catalysts and developing advanced electrochemical cells for the direct conversion of CO₂ into CH₄ using steam and electricity.
     
  • Development of high accuracy multi-scale system model and TEA tool for methane upgrading, complimented by LCA and societal acceptance studies to facilitate the roll-out of the technology.  

Electro-chemical Materials and Processes for Green Hydrogen and Green Chemistry

EIFER’s Contribution

  • Project coordination 
  • Development of proton ceramic electrolysis cells (PCEC) tailor made for CO₂ methanation. Manufacturing reference, advanced and innovative cells including infiltration of specific catalysts into cell structure. 
  • Characterization composition and phase purity of PCEC cells by X-ray diffractometry (XRD), structural analysis (SEM) for cell microstructure and electrochemical and electrocatalytic measurements for determining cell performance. 
  • Life Cycle Assessment (LCA) of the industrial ECOMET system for evaluating its environmental performance. 
  • Analysis of current regulations on the production and use of synthetic methane to evaluate the main barriers and requirements of the ECOEMT technology for its implementation. 
  • Social acceptance studies including a workshop for an inter- and transdisciplinary exchange between technology, economic, political and social aspects. 

Contact

Bastian Ludwig bastian.ludwig@eifer.org 

This projekt receives funding from BMFTR under grant agreement number 03SF0779A.

Dutch–German Joint call on Electrochemical Materials and Processes for Green Hydrogen and Green Chemistry (DE-NL-ECCM)