Power-to-X and “Green” Platform Chemicals

We are working on processes enabling a sustainable supply of renewable and CO2-neutral platform chemicals for the chemical industry of the future.

With this mission in mind, we are primarily pursuing a drop-in‑approach: We search for new process routes to synthesize important platform chemicals from renewable raw materials and energy, thus replacing conventional fossil-based production pathways and tapping the huge potential of renewable feedstock for the chemical industry.

In this context, methanol and ammonia (derived from hydrogen and CO2 or nitrogen, respectively) represent important intermediate products that can be further converted via chemical or biotechnological processes into platform chemicals, monomers, organic acids, amino acids or even high-value fine chemicals or other products.

Benefits

  • Climate-neutral production of platform chemicals based on renewable resources and energy
  • Circular economy
  • Independence from fossil fuels
  • Decentralized production is possible

Our services

  • Development of processes including catalyst synthesis, screening and optimization
  • Process scale-up
  • Synthesis of product samples

Publications

J. T. Fabarius, C. Pietzka, D. Pangotra, L. Vieira, C. Sagstetter, M. Speck, A. Roth et al. (2024). Process Cascade for the Production of Green Polymers from CO2 and Electric Energy. Chemie Ingenieur Technik, 96(5), 698-712.
https://onlinelibrary.wiley.com/doi/10.1002/cite.202400002 

 

Melcher, F.,Vogelgsang, F.,Haack, M.,Masri, M.,Ringel, M.,Roth, A.,Garbe, D., & Brück,T. (2023). Lipase-mediatedplantoilhydrolysis—Toward a quantitative glycerol recovery for the synthesis of pure allyl alcohol and acrylonitrile. European Journal of Lipid Science & Technology, 2200196.
https://doi.org/10.1002/ejlt.202200196 

Further information

Production of green ammonia

Reference projects

 

January 2024 – December 2026

AmmonVektor

Green ammonia as a decentralized, cross-sector energy vector for the German energy transition

The Fraunhofer flagship project researches ammonia as an energy vector for the transportation of hydrogen. The Fraunhofer Institutes UMSICHT, ICT, IGB, IKTS, IML, IMM, IMW and ITWM are looking at the entire value chain, taking advantage of the fact that ammonia already has a global transport infrastructure due to fertilizer production.

 

November 2022 – October 2025

DiMeFu

Dimethylfuran as a sustainable downstream product of 5-hydroxymethylfurfural: production and applications of a bio-based solvent

The aim of DiMeFu is the optimization and subsequent upscaling of a heterogeneously catalyzed process developed in Prof. Muhler's working group. As part of a DFG predecessor project, 5-hydroxymethylfurfural (5-HMF) was successfully converted to dimethylfuran (DMF) using novel Pd-based catalysts supported on N-doped carbon and under mild reaction conditions with the aid of formic acid.

 

January 2021 – December 2023

Fraunhofer Lighthouse Project "ShaPID"

Shaping the Future of Green Chemistry by Process Intensification and Digitalization

Global challenges in climate protection and resource efficiency, coupled with societal demands for a green, sustainable chemistry, have led the chemical industry to set ambitious goals for defossilizing its production processes and establishing a circular, climate-neutral material and energy conversion.

 

November 2018 – July 2020

Green Ammonia

Production of green ammonia in Morocco

As a "Power-to-X" product, green ammonia contributes significantly to the coupling of various sectors, helping to create a stable renewable energy landscape. The Green Ammonia project started on behalf of the Moroccan fertilizer manufacturer OCP and in collaboration with Fraunhofer IMWS, with a focus on evaluating new technologies for the sustainable production of ammonia.

 

October 2016 – September 2020

GreenCarbon

Advanced Carbon Materials from Biowaste: Sustainable Pathways to Drive Innovative Green Technologies

The EU-funded Marie Skłodowska Curie Actions – Innovative Training Networks provides career development and training opportunities for 14 Early‑Stage Researchers and focusses on the production of carbon materials on the basis of renewable resources to further develop them as catalysts or adsorbent materials for high‑performance applications.