1 |
A versatile computational tool for model-based design, control and diagnosis of a generic Solid Oxide Fuel Cell Integrated Stack Module Gallo M, Marra D, Sorrentino M, Pianese C, Au SF Energy Conversion and Management, 171, 1514, 2018 |
2 |
Feedforward-feedback control of a solid oxide fuel cell power system Vrecko D, Nerat M, Vrancic D, Dolanc G, Dolenc B, Pregelj B, Meyer F, Au SF, Makkus R, Juricic D International Journal of Hydrogen Energy, 43(12), 6352, 2018 |
3 |
Utilization of mine gas with a high-temperature SOFC fuel cell Au SF, Blum L, Dengel A, Gross B, de Haart LGJ, Kimmerle K, Wolf M Journal of Power Sources, 145(2), 582, 2005 |
4 |
Verification of a simple numerical fuel cell model in a flowsheeting program by performance testing of a 110 cm(2) molten carbonate fuel cell Au SF, Woudstra N, Hemmes K, Uchida I Energy Conversion and Management, 44(14), 2297, 2003 |
5 |
Flowsheet calculation of a combined heat and power fuel cell plant with a conceptual molten carbonate fuel cell with separate CO2 supply Au SF, Hemmes K, Woudstra N Journal of Power Sources, 122(1), 19, 2003 |
6 |
Study of multistage oxidation by flowsheet calculations on a combined heat and power molten carbonate fuel cell plant Au SF, Woudstra N, Hemmes K Journal of Power Sources, 122(1), 28, 2003 |
7 |
The influence of operating temperature on the efficiency of a combined heat and power fuel cell plant Au SF, McPhail SJ, Woudstra N, Hemmes K Journal of Power Sources, 122(1), 37, 2003 |
8 |
Verification of analytical fuel cell models by performance testing at a 110 cm(2) molten carbonate fuel cell Au SF, Peelen WHA, Standaert FRAM, Hemmes K, Uchida I Journal of the Electrochemical Society, 148(10), A1051, 2001 |
9 |
Electrochemical oxidation of carbon in a 62/38 mol % Li/K carbonate melt Peelen WHA, Olivry M, Au SF, Fehribach JD, Hemmes K Journal of Applied Electrochemistry, 30(12), 1389, 2000 |