|
Volumn 195, Issue 10, 2010, Pages 3186-3200
|
Computational model to predict thermal dynamics of planar solid oxide fuel cell stack during start-up process
|
Author keywords
SOFC; Start up; Thermal dynamics; Transient performance
|
Indexed keywords
AMBIENT TEMPERATURES;
CATHODE AND ANODE;
CATHODE CHANNEL;
CERAMIC ELECTROLYTES;
COMPUTATIONAL MODEL;
CONTROL VOLUMES;
DISCRETIZED CONTROL;
ELECTRICAL HEATING;
ENERGY EQUATION;
FINITE VOLUME;
FLOW CHANNELS;
GAS CHANNELS;
HEAT TRANSFER MODEL;
HEAT-UP;
HEATING ENERGY;
HEATING PROCESS;
HOT AIR;
HYDROCARBON FUEL;
ION CONDUCTIVITIES;
MEMBRANE ELECTRODE ASSEMBLIES;
NET ENERGY CONSUMPTION;
NUMERICAL CONTROL;
ONEDIMENSIONAL FLOW;
PLANAR SOLIDS;
POWER GENERATION SYSTEMS;
SIMULATION TOOL;
SOFC STACK;
SOLID STRUCTURES;
START-UP PROCESS;
START-UPS;
SURFACE TEMPERATURES;
SYNTHETIC GAS;
TEMPORAL EVOLUTION;
THERMAL DYNAMICS;
THERMAL EFFICIENCY;
TIME MARCHING;
TRANSIENT GOVERNING EQUATIONS;
TRANSIENT PERFORMANCE;
UNIFORM HEAT FLUX;
ALGORITHMS;
CHANNEL FLOW;
COMPUTATIONAL EFFICIENCY;
CONTROL SURFACES;
DYNAMICS;
ELECTRIC HEATING;
ENERGY UTILIZATION;
HEAT TRANSFER;
HIGH TEMPERATURE OPERATIONS;
HYDROCARBONS;
HYDROGEN FUELS;
MEMBRANE STRUCTURES;
OPTIMIZATION;
SPACECRAFT;
THERMAL GRADIENTS;
THERMOANALYSIS;
SOLID OXIDE FUEL CELLS (SOFC);
|
EID: 74149088590
PISSN: 03787753
EISSN: None
Source Type: Journal
DOI: 10.1016/j.jpowsour.2009.11.129 Document Type: Article |
Times cited : (35)
|
References (29)
|