Title of article :
H2 rich product gas by steam gasification of biomass with in situ CO2 absorption in a dual fluidized bed system of 8 MW fuel input
Author/Authors :
Koppatz، نويسنده , , Stefan and Pfeifer، نويسنده , , Christoph and Rauch، نويسنده , , Reinhard and Hofbauer، نويسنده , , Hermann and Marquard-Moellenstedt، نويسنده , , Tonja and Specht، نويسنده , , Michael، نويسنده ,
Issue Information :
روزنامه با شماره پیاپی سال 2009
Pages :
8
From page :
914
To page :
921
Abstract :
The steam gasification of solid biomass by means of the absorption enhanced reforming process (AER process) yields a high quality product gas with increased hydrogen content. The product gas can be used for a wide range of applications which covers the conventional combined heat and power production as well as the operation of fuel cells, the conversion into liquid fuels or the generation of synthetic natural gas and hydrogen. On the basis of a dual fluidized bed system, steam gasification of biomass is coupled with in situ CO2 absorption to enhance the formation of hydrogen. The reactive bed material (limestone) used in the dual fluidized bed system realizes the continuous CO2 removal by cyclic carbonation of CaO and calcination of CaCO3. Biomass gasification with in situ CO2 absorption has been substantially proven in pilot plant scale of 100 kW fuel input. The present paper outlines the basic principles of steam gasification combined with the AER process the investigations in reactive bed materials, and concentrates further on the first time application of the AER process on industrial scale. The first time application has been carried out within an experimental campaign at a combined heat and power plant of 8 MW fuel input. The results are outlined with regard to the process conditions and achieved product gas composition. Furthermore, the results are compared with standard steam gasification of biomass as well as with application of absorption enhanced reforming process at pilot plant scale.
Keywords :
Fluidized bed gasification , Hydrogen generation , BIOMASS , CO2 sorbent bed material , In situ CO2 absorption
Journal title :
Fuel Processing Technology
Serial Year :
2009
Journal title :
Fuel Processing Technology
Record number :
1506665
Link To Document :
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