Ajay K. Prasad
376 ISE Lab
History;
basic principles of electrolysis of water;
basic principles of hydrogen fuel cell operation;
elementary efficiency considerations; limitations on current;
bipolar plate connections; gas supply and cooling;
types of fuel cells; applications
Energy
and EMF of Hydrogen fuel cell; efficiency and efficiency limits;
fuel utilization coefficient; effect of pressure and gas concentration;
Nernst equation; Hydrogen partial pressure; fuel and oxidant utilization;
system pressure
Fuel
cell irreversibilities; activation losses and the Tafel equation;
fuel crossover and internal currents; ohmic losses;
mass transport or concentration losses; combining irreversibilities;
the charge double layer
Polymer
electolyte, electrodes, and electrode structure;
membrane electrode assembly; water management in the PEMFC
including evaporation and humidification; PEMFC cooling;
PEMFC connections and the bipolar plate; operating pressure;
reactant composition; example systems
Historical
background and overview; types of alkaline electrolyte
fuel cells; operating pressure and temperature; electrodes for alkaline
electrolyte fuel cells; interconnections
Anode
reactions and catalysts; electrolyte and fuel crossover;
cathode reactions and catalysts; methanol production; DMFC applications
Common
features; Phosphoric acid fuel cell (POFC);
molten carbonate fuel cell (MCFC); solid oxide fuel cell (SOFC)
Fossil
fuels and bio fuels; practical fuel processing for
stationary and mobile applications; electrolyzers and biological
production of hydrogen; hydrogen safety; hydrogen storage
Well
to wheels analysis; well to tank analysis;
examples: PEMFC powered bus, stationary natural gas fueled system