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Anode Sub-System Development & Optimisation for SOFC systems
Call for proposals:
Stationary power production and CHP
Project fact sheet:
The high temperature fuel cell technologies have potential for high electrical efficiency, 45-60%, and total efficiency up to 95%. SOFC has the added benefit of offering commercial applications from 1 kW residential to several MW stationary units with high fuel flexibility. Whilst much effort is devoted to cell and stack issues, less attention has been paid to the components and sub-systems required for an operational system. Components and sub-systems such as fuel processing, heat and thermal management, humidification, fluid supply and management and power electronics are as crucial to the successful commercialisation of fuel cell systems as the cell and stack.
This project is focused on the development of fuel and water management for SOFC systems. The fuel management, and especially recirculation, is a key question in achieving high electric efficiency and rejecting external water supply. The recirculation increases the fuel utilization rate and can provide the water needed in the reforming of fuels. However, with current SOFC systems the anode circulation has been problematic from controllability and reliability points of view, and hence there is a need to develop the overall solution of the anode subsystem. This project will evaluate different process approaches for fuel and water management, e.g. blower-based approach, ejector-based approach, and water circulation by condensing from the anode off-gas/exhaust gas and evaporating back to the fuel loop. The aspects taken into account in the conceptual analysis are effects on electric efficiency and process simplicity implying easiness of controllability, and requirements on diagnostics accuracy to provide insights into failure mode prevention. In the detailed evaluation, the suitable approaches are analysed more thoroughly in terms of component availability and reliability, achievable diagnostics accuracy, controllability, effects on reformer, mechanical integration feasibility to whole system, cost effects etc.
Topic SP1-JTI-FCH.2008.3.2: Component and system improvement for stationary Applications
Basic and long-term research
Friday, January 1, 2010
Monday, December 31, 2012
Valtion Tieteellinen Tutkimuskeskus (VTT), Finland
Mr Jari KIVIAHO
Other participating organisations:
|EBZ Entwicklungs- und Vertriebsgesellschaft Brennstoffzelle mbH||Germany|
|WARTSILA FINLAND OY||Finland|
|FORSCHUNGSZENTRUM JUELICH GMBH||Germany|
EP11006485.4-2119, R. Deja, R. Peters, L. Blum, Forschungszentrum Jülich GmbH, "Festoxid-Brennstoffzellen-System sowie Verfahren zum Betreiben eines solchen – Solid Oxide Fuel Cell System and Method for Operating the Same;"
FI 20105697, Wärtsilä Finland Oy, ownership transferred to Convion Oy 14.1.2013, "Control arrangement and method in fuel cell system"
FI 20106241, Wärtsilä Finland Oy, ownership transferred to Convion Oy 14.1.2013, "Method and control arrangement for a fuel cell device"
FI 20116281, Wärtsilä Finland Oy, ownership transferred to Convion Oy 14.1.2, "Method and arrangement for controlling water content of cell anode gas"
FI 20125147, Wärtsilä Finland Oy, ownership transferred to Convion Oy 14.1.2013, "Method and arrangement for utilizing recirculation for high temperature fuel cell system"
PCT/FI2012/050405, Wärtsilä Finland Oy, ownership transferred to Convion Oy 14.1.2013, "Method and arrangement for determining enthalpy balance of a fuel cell system"
PCT/FI2012/050407, Wärtsilä Finland Oy, ownership transferred to Convion Oy 14.1.2013, "Method and arrangement for determining enthalpy change of a fuel cell system"
Halinen, Matias, Fuel Cells 08/08/2012, 754-760, "Effect of anode off-gas recycling on reforming of natural gas for solid oxide fuel cell systems"
Roland Peters, FZJ, International Journal of Hydrogen Energy 19/04/2013, in press, "Analysis of solid oxide fuel cell system concepts with anoderecycling"