Climate change is driving the world to investigate alternative sources of fuel. In order to address any potential economic shortfalls to biodiesel, one can look to its by-product, glycerin, as a potential revenue source. At the University of Kansas, a novel system converts glycerin over a nickel–alumina catalyst into a hydrogen-rich gas (syngas) that is sent to an engine-generator system in one continuous flow process. This effort describes the hardware employed in this system, and demonstrates the production of power from the reforming of glycerin. Comparison of the peak combustion pressure and combustion timing produced between the syngas generated from glycerin and propane combustion shows virtually no performance differences between the two fuels. However, emissions vary significantly due to a variance in air-to-fuel ratios between the two fuels that will require a re-optimization when running glycerin. This system has the potential to reduce power requirements at biodiesel production facilities by utilizing glycerin on-site in a low-cost manner.
Issue Section:
Gas Turbines: Coal, Biomass, and Alternative Fuels
Keywords:
Alternative energy sources,
Combustion,
Energy,
Engines,
Experimental,
Fuel combustion,
Fuels ,
Infrastructure,
Internal combustion engines,
Packed Beds,
Power systems,
Combustion
Topics:
Biodiesel,
Combustion,
Emissions,
Engines,
Flow (Dynamics),
Fuels,
Hydrogen,
Stress,
Syngas,
Temperature,
Water,
Generators,
Food products,
Energy generation,
Pressure,
Carbon dioxide,
Nickel
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