• Paris-Goals demand: -50% reduction of fossil CO₂-emissionen every 10 years,
  +100% increase of CO₂-free energy supply every 5 years
• efficient utilisation of waste biomass is needed – and possible
• conversion of various input material into energy form needed

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or contact Dr. Stefan MÜLLER (TU Wien), opens an external URL in a new window

• utilises CO₂ from biogas and H₂ (from electrolysis with excess electricity) for production of “green methane”
• doubling of biomethane production possible per biogas plant
• dual use of membrane separation system for biogas and gas from the methanation
• moderate investment and operating costs Compliance with strict EU standards for the production of bio-methane

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• energy efficient and safe transportation of H₂
• using well established natural gas grids
• simple, safe, economical, and flexible H₂ supply to decentralized hydrogen fuel stations and industries of the future
• up to 99,97% H2

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or contact Prof. Dr. Michael HARASEK, opens an external URL in a new window

• new separation technique – cost and energy efficient
• supplies pure CO₂ for industrial and agricultural use
• based on solid particles in multi-stage fluidized bed columns
• compact design and high efficiency at moderate costs
• demonstration at pilot scale: 1 tCO₂/ day

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or contact Dr. Gerhard SCHÖNY (TU Wien), opens an external URL in a new window

• 1/3 of world energy consumption is needed by industry
• significant reductions due to innovative modelling, appropriate selection of components, and operational optimisation
• interdependence of technical systems – infrastructure – markets – technologies has to be considered

For more information contact Prof. Dr. René HOFMANN, opens an external URL in a new window

• utilising waste heat from 150°C to 400°C
• cost-effective materials – also for long-term storage over several months
• to prevent cold starts of combustion engines and avoid their emissions – for cars, lorries, ships, construction machinery, traction engines
• to utilise waste heat in heat-intensive manufacturing and processing industries and in the energy sector

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or contact Prof. Dr. Andreas WERNER, opens an external URL in a new window

• flexible storage for volatile electrical energy from 0.5 to 15 MW
• system efficiency of 70–80%
• stabilisation of medium-voltage grids highly efficient and cost-effective
• stabilisation of medium-voltage grids highly efficient and cost-effective

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or contact Prof. Dr. Eduard DOUJAK, opens an external URL in a new window

• large scale integration of decentralized generation and storage options
• secure, reliable and sustainable operation in normal as well as in emergency cases
• drastic reduction of the exchanged data - i.e. thus bypassing today’s ICT challenges
• smooth and modular implementation in existing power grids
• strong support to decarbonisation of the power industry

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or contact Prof. Dr. Albana ILO, opens an external URL in a new window

• reliable process to remove H₂S from gases containing methane and hydrogen
• highly efficient, dynamic, compact – for fluctuating sulphur content
• simple integration into existing systems, small construction volume
• use of simple and common chemicals
• moderate investment and operating costs

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or contact Prof. Dr. Michael HARASEK, opens an external URL in a new window