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Anode ink formulation for a fully printed flexible fuel cell stack
Liisa Hakola
*
, Andres Parra Puerto
,
Anu Vaari
, Tiina Maaninen
, Anthony Kucernak
, Saara Viik
,
Maria Smolander
*
Corresponding author for this work
BA6304 Flexible sensors and devices
Imperial College London
Research output
:
Contribution to journal
›
Article
›
Scientific
›
peer-review
12
Citations (Scopus)
253
Downloads (Pure)
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Keyphrases
Air Condition
33%
Air-breathing
33%
Alcohol Solvents
33%
Binder
33%
Catalyst Layer
33%
Diacetone Alcohol
33%
Electrochemical Reactions
33%
Five Cells
33%
Flexible Fuel Cell
100%
Formulation Method
33%
Fuel Cell
33%
Fuel Cell Stack
100%
Fully Printed
100%
H2-air
33%
Impedance Analysis
33%
Ink Formulation
100%
Inkjet Inks
33%
Inkjet Print
33%
Jet Performance
33%
Low Performance
33%
Nafion
33%
Open Circuit Potential
33%
Peak Power
33%
Platinum-ruthenium
33%
Potentiostat
33%
Printing Techniques
33%
Resistivity
66%
Screen-printed Electrode
33%
Single-use Sensors
33%
INIS
air
40%
alcohols
20%
anodes
100%
binders
20%
breathing
20%
carbon
20%
catalysts
40%
concentration
20%
electrochemistry
20%
electrodes
20%
fuel cells
100%
impedance
20%
inks
100%
layers
20%
mixtures
20%
peak power
20%
performance
60%
platinum
20%
ruthenium
20%
sensors
20%
solutions
20%
solvents
20%
stacks
100%
vehicles
20%
Engineering
Air Condition
33%
Breathing
33%
Catalyst Layer
33%
Fuel Cell
33%
Fuel Cell Stack
100%
Nafion
33%
Open Circuit Potential
33%
Peak Power
33%
Material Science
Anode
100%
Electrical Resistivity
40%
Electrochemical Reaction
20%
Electronic Circuit
20%
Platinum
20%
Ruthenium
20%