| VOLUME
1: FUNDAMENTALS AND SURVEY OF SYSTEMS |
| Part
1: Thermodynamics and kinetics of fuel cell
reactions |
| |
| 1
The components of an electrochemical
cell |
| 2
The electrode-electrolyte interface
|
| 3
Thermodynamics of electrodes and
cells |
| 4
Ideal and effective efficiencies
of cell reactions and comparison
to carnot cycles |
| 5
Kinetics of electrochemical reactions
|
| 6
Introduction to fuel-cell types
|
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|
 |
| Part
2: Mass transfer in fuel cells |
| |
| 7
Mass transfer at two-phase and
three-phase interfaces |
| 8
Mass transfer in flow fields |
|
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| Part
3: Heat transfer in fuel cells |
| |
| 9
Low temperature fuel cells |
| 10
High temperature fuel cells |
| 11
Air-cooled PEM fuel cells |
|
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| Part
4: Fuel cell principles, systems and applications
|
| |
| 12
General scientific background
before and during the beginning
of fuel cell research |
| 13
History of high temperature fuel
cell development |
| 14
Hydrogen/oxygen (air) fuel cells
with alkaline electrolytes |
| 15
Hydrazine fuel cells |
| 16
Phosphoric acid electrolyte fuel
cells |
| 17
Aqueous carbonate electrolyte
fuel cells |
| 18
Direct methanol fuel cells (DMFC
|
| 19
Other direct-alcohol fuel cells
|
| 20
Solid oxide fuel cells (SOFC)
|
| 21
Biochemical fuel cells |
| 22
Metal/air batteries: The zinc/air
case |
| 23
Seawater aluminium/air cells |
| 24
Energy storage via electrolysis/fuel
cells |
|
|
|
| VOLUME
2: ELECTROCATALYSIS |
| Part
1: Introduction |
| |
| 1
What is electrocatalysis? |
| 2
The role of adsorption |
| 3
Understanding electrocatalysis:
From reaction steps to first-principles
calculations |
| 4
Electrode potential as parameter
|
| 5
Catalysis by UPD metals |
| 6
Outer sphere reactions |
| 7
The NEMCA effect |
|
|
|
| Part
2: Theory of electrocatalysis |
| |
| 8
Electrode potential and double
layer |
| 9
Reaction mechanism and rate determining
steps |
| 10
Adsorption - Volcano curve |
| 11
Theorectical aspects of some prototypical
fuel cell reactions |
| 12
Theory of electrochemical outer
sphere reactions |
| 13
Theory of the NEMCA effect |
|
|
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| Part
3: Methods in electrocatalysis |
| |
| 14
Cyclic voltammetry |
| 15
Product analysis |
| 16
Vibrational spectroscopy |
| 17
Electrochemical impedance spectroscopy
|
| 18
Ex-situ surface preparation and
analysis: Transfer between UHV
and electrochemical cell |
| 19
Structure sensitive methods: AFM/STM
|
| 20
EXAFS, XANES, SASXS |
| 21
Normalization of porous active
surfaces |
| 22
Rotating thin-film method for
supported catalysts |
| 23
Combinatorial catalyst development
methods |
| 24
Numerical simulations of electrocatalytic
processes |
|
|
|
| Part
4: The hydrogen oxidation/evolution reaction
|
| |
| 25
Reaction mechanisms of the H2
oxidation/evolution reaction |
| 26
The hydrogen electrode reaction
and the electrooxidation of CO
and H2/CO mixtures on well-characterized
Pt and Pt-bimetallic surfaces
|
| 27
Oxidation reactions in high-temperature
fuel cells |
| 28
New CO-tolerant catalyst concepts
|
| 29
Hydrogen evolution reaction |
|
|
|
| Part
5: The oxygen reduction/evolution reaction
|
| |
| 30
Reaction mechanisms of the O2
reduction/evolution reaction |
| 31
Oxygen reduction reaction on smooth
single crystal electrodes |
| 32
O2 reduction reaction on the Pt/polymerelectrolyte
interface |
| 33
Fundamental kinetics/transport
processes in MEAs |
| 34
O2 reduction and structure-related
parameters for supported catalysts
|
| 35
Oxide-based ORR catalysts |
| 36
Chevrel phases and chalcogenides
|
| 37
Macrocycles |
| 38
Poisons for the O2 reduction reaction
|
| 39
O2-reduction at high temperature:
MCFC |
| 40
O2-reduction at high temperatures:
SOFC |
|
|
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| Part
6: Oxidation of small organic molecules |
| |
| 41
Methanol and CO electrooxidation |
| 42
Formic acid oxidation |
| 43
Methanol and formic acid oxidation
on ad-metal modified electrodes |
| 44
Methanol effects on the O2 reduction
reaction |
| 45
Oxidation of C2 molecules |
| 46
Oscillations and other dynamic
instabilities |
|
|
|
| Part
7: Other energy conversion related topics
|
| |
| 47
Hydrogenation reactions |
| 48
CO2-reduction, catalyzed by metal
electrodes |
| 49
Electrochemical supercapacitors
and their complementarity to fuel
cells and batteries |
| 50
Technical characteristics of PEM
electrochemical capacitors |
|
|
|
| VOLUME
3: FUEL CELL TECHNOLOGY AND APPLICATIONS:
PART 1 |
| Part
1: Sustainable energy supply |
| |
| 1
Alternative fuels and prospects
- Overview |
| 2
Natural gas for power generation
and the automotive market |
| 3
Methanol from fossil and renewable
resources |
| 4
Synthetic hydrocarbons as long-term
fuel option |
| 5
Solar and wind energy coupled
with electrolysis and fuel cells
|
|
|
|
| Part
2: Hydrogen storage and hydrogen generation
|
| |
| Development
prospects for hydrogen storage
|
| 6
High pressure storage |
| 7
Liquid hydrogen technology for
vehicles |
| 8
Hydride storage |
| Chemical
hydrogen storage devices |
| 9
Aqueous borohydride solutions
|
| 10
Ammonia crackers |
| Reforming
of methanol and fuel processor
development |
| 11
Catalyst development and kinetics
for methanol fuel processing |
| 12
Methanol reformer design considerations
|
| 13
Mixed POX/steam-reforming reactor
design considerations |
| Fuel
processing from hydrocarbons to
hydrogen |
| 14
Steam reforming, ATR, partial
oxidation: catalysts and reaction
engineering |
| 15
Sulfur removal methods |
| 16
Catalyst development for water-gas
shift |
| 17
Membrane reactor concepts |
| 18
PROX catalysts |
| 19
Autothermal reforming |
| 20
Alternative design possibilities
for integrated fuel processors
|
| Well-to-wheel
efficiencies |
| 21
Well-to-wheel efficiencies of
different fuel choices |
| Hydrogen
safety, codes and standards
|
| 22
Hydrogen safety, codes and standards
for vehicles and stationary applications
|
|
|
|
| Part
3: Polymer electrolyte membrane fuel cell
systems (PEMFC) |
| |
| Bipolar
plate materials and flow field
design |
| 23
Basic materials corrosion issues
|
| 24
Performance and durability of
bipolar plate materials |
| 25
Metal bipolar plates and coatings
|
| 26
Graphite-based bipolar plates
|
| 27
Serpentine flow field design |
| 28
Interdigited flow field design
|
| 29
Two-phase flow and transport |
| Membrane
materials |
| 30
Perfluorinated membranes |
| 31
First principles modelling of
sulfonic acid based ionomer membranes
|
| 32
Composite perfluorinate membranes
|
| 33
Hydrocarbon membranes |
| 34
High-temperature membranes |
| 35
Inorganic/organic composite membranes
|
| 36
Membrane/electrode additives for
low-humidification operation |
| Electro-catalysts
|
| 37
Pt alloys as oxygen reduction
catalysts |
| 38
High dispersion catalysts including
novel carbon supports |
| 39
Development of CO-tolerant catalysts
|
| 41
Precious metal supply requirements
|
| Membrane-electrode-assembly
(MEA) |
| 42
Diffusion media materials and
characterisation |
| 43
Principles of MEA preparation
|
| 44
Catalyst coated composite membranes
|
| 45
Novel catalysts, catalysts support
and catalysts coated membrane
methods |
| State-of-the-art
performance and durability |
| 46
Beginning-of-life MEA performance
- Efficiency loss contributions
|
| 47
Durability |
| 48
Effect of ionic contaminants |
| 49
Mechanisms of membrane degradation
|
| 50
Reliability issues and voltage
degradation |
|
|
|
| VOLUME
4: FUEL CELL TECHNOLOGY AND APPLICATIONS:
PART 2 |
| Part
3: Polymer electrolyte membrane fuel cells
and systems (PEMFC) cont…d |
| |
| System
design and system-specific aspects
|
| 51
System design for stationary power
generation |
| 52
System design for vehicle applications:
DaimlerChrylser |
| 53
System design for vehicle applications:
GM/Opel |
| Air-supply
components |
| 54
Air-supply components |
| Applications
based on PEM-technology |
| 55
Special applications using PEM-technology
|
|
|
|
| Part
4: Alkaline fuel cells and systems (AFC) |
| |
| 56
Stack materials and design |
| 57
System design and applications
|
| 58
A comparison between the alkaline
fuel cell (AFC) and the polymer
electrolyte membrane (PEM) fuel
cell |
|
|
|
| Part
5: Phosphoric acid fuel cells and systems
(PAFC) |
| |
| 59
Stack materials and stack design
|
| 60
Catalyst studies and coating technologies
|
| 61
Experience with 200kW PC25 fuel
cell power plant |
|
|
|
| Part
6: Direct methanol fuel cells and systems
(DMFC) |
| |
| 62
Transport/kinetic limitations
and efficiency losses |
| 63
New materials for DMFC MEAs |
| 64
System design for transport applications
|
| 65
DMFC system design for portable
applications |
|
|
|
| Part
7: Molten carbonate fuel cells and systems
(MCFC) |
| |
| 66
Stack material and stack design
|
| 67
Electrolyte and material challenges
|
| 68
System design |
| 69
Durability |
|
|
|
| Part
8: Solid oxide fuel cells and systems (SOFC)
|
| |
| Materials |
| 70
Current electrolytes and catalysts
|
| 71
Low temperature electrolytes and
catalysts |
| 72
MEA/cell preparation methods:
Europe/USA |
| 73
MEA/cell preparation methods:
Japan/Asia |
| 74
Interconnects |
| Stack
and system design |
| 75
Internal reforming |
| 76
System design |
| New
concepts |
| 77
New microtube concepts |
| 78
Direct hydrocarbon SOFCs |
| 79
Novel elctrolytes operating at
400-600 C |
|
|
|
| Part
9: Primary and secondary metal/air cells |
| |
| 80
Alkaline methanol/air power devices
|
|
|
|
| Part
10: Portable fuel cell systems |
| |
| 81
Portable direct methanol fuel
cell systems |
| 82
Portable PEM systems 83 Small-szie
PEM systems for special applications
|
|
|
|
| Part
11: Current fuel cell propulsion systems |
| |
| PEM
fuel cell systems for cars/buses
|
| 84
DaimlerChrylser fuel cell activities
|
| 85
General Motors/OPEL fuel cell
activities - Driving towards a
successful future |
| 86
Honda fuel cell activities |
| 87
Hy.Power - A technology platform
combining a fuel cell system and
a supercapacitor |
| PEM
fuel cell systems for submarines
|
| 88
H2/O2-PEM-fuel cell module for
an air independent propulsion
system in a submarine |
| AFC
fuel cell systems |
| 89
Automotive development |
| 90
Space-shuttle fuel cell |
|
|
|
| Part
12: Electric utility fuel cell systems |
| |
| 91
PEMFC fuel cell systems |
| 92
MCFC fuel cell systems |
| 93
SOFC fuel cell systems |
|
|
|
| Part
13: Future prospects of fuel cell systems
|
| |
| 94
Life-cycle analysis of fuel cell
system components |
| 95
Market concepts, competing technologies
and cost challenges for automotive
and stationary applications |
| 96
Potential economic impact of fuel
cell technologies |
|
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| |
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