• Title of article

    Technical and economic study of integrated system of solid oxide fuel cell, palladium membrane reactor, and CO2 sorption enhancement unit

  • Author/Authors

    Piroonlerkgul، نويسنده , , P. and Kiatkittipong، نويسنده , , W. and Arpornwichanop، نويسنده , , A. and Soottitantawat، نويسنده , , A. and Wiyaratn، نويسنده , , W. and Laosiripojana، نويسنده , , Dai-Viet N. and Adesina، نويسنده , , A.A. and Assabumrungrat، نويسنده , , S.، نويسنده ,

  • Issue Information
    روزنامه با شماره پیاپی سال 2010
  • Pages
    11
  • From page
    1006
  • To page
    1016
  • Abstract
    This paper deals with the integrated system of solid oxide fuel cell (SOFC), palladium membrane reactor (PMR), and CO2 sorption enhancement (SE) unit. Three configurations of the SOFC systems fed by biogas are considered, i.e., PMR–SOFC, SE–PMR–SOFC, and SE–PMR–SOFC with a retentate gas recycling (SER–PMR–SOFC). The SOFC system equipped with a conventional reformer (CON–SOFC) is considered as a base case. The simulation results show that the capture of CO2 in biogas before being fed to PMR (SE–PMR–SOFC) can improve H2 recovery. The performance of SE–PMR–SOFC can be further enhanced by recycling retentate gas from PMR to CO2 sorption enhancement unit (SER–PMR–SOFC). Compared to CON–SOFC, both SE–PMR–SOFC and SER–PMR–SOFC give higher power density and thus require smaller stack size (the stack size reduction of 1.55% and 8.27% are observed for SE–PMR–SOFC and SER–PMR–SOFC, respectively). The economic analysis is performed to identify the potential benefits of each SOFC configuration. The results indicate that SE–PMR–SOFC and SER–PMR–SOFC are not cost-effective systems compared with CON–SOFC; however, the capture of CO2 in these SOFC systems offers an environmental benefit. High %total CO2 capture and low cost of CO2 capture are achieved under these SOFC systems.
  • Keywords
    Biogas , Solid oxide fuel cell , Palladium membrane , CO2 capture
  • Journal title
    Chemical Engineering and Processing: Process Intensification
  • Serial Year
    2010
  • Journal title
    Chemical Engineering and Processing: Process Intensification
  • Record number

    1610412