« Schwerpunktprogramme (SPP)

Bitte aktivieren Sie JavaScript in Ihren Browsereinstellungen, um das Forschungsportal nutzen zu können.

Sie verwenden einen sehr veralteten Browser und können Funktionen dieser Seite nur sehr eingeschränkt nutzen. Bitte aktualisieren Sie Ihren Browser. http://www.browser-update.org/de/update.html

{ "type": "FeatureCollection", "features": [{"type_icon": "structure", "type": "Point", "coordinates": [11.6455823, 52.1405894]}] }

2419 HyCAM Hydrogen-based fuel combustion using additive manufacturing

Otto-von-Guericke-Universität Magdeburg

Universitätsplatz 2

39106 Magdeburg

https://spp2419.itv.rwth-aachen.de

Thermochemical utilization of hydrogen-based fuels is essential for transforming the energy system towards carbon neutral energy conversion, as it offers significant advantages in this context. Thermochemical energy conversion processes are widely available, reliable, and can be made completely carbon-free using fuels such as hydrogen and ammonia. They are “drop-in” capable and allow gradual substitution of fossil fuels, avoiding complex disruptive technology changes. Therefore, high-temperature thermochemical processes combined with carbon-free chemical energy sources have key roles to play in the energy system of the future and the preceding transition phase. These technologies require fuel flexibility, which will be achieved here together with the optimization of efficiency, emissions and safety by combining combustion science with innovative manufacturing processes, e.g. additive manufacturing, and the associated degrees of freedom in materials and design.

Thermochemical utilization of hydrogen-based fuels is essential for transforming the energy system towards carbon neutral energy conversion, as it offers significant advantages in this context. Thermochemical energy conversion processes are widely available, reliable, and can be made completely carbon-free using fuels such as hydrogen and ammonia. They are “drop-in” capable and allow gradual substitution of fossil fuels, avoiding complex disruptive technology changes. Therefore, high-temperature thermochemical processes combined with carbon-free chemical energy sources have key roles to play in the energy system of the future and the preceding transition phase. These technologies require fuel flexibility, which will be achieved here together with the optimization of efficiency, emissions and safety by combining combustion science with innovative manufacturing processes, e.g. additive manufacturing, and the associated degrees of freedom in materials and design.