
Sand grinder
- Use/purpose
-
・
Crushing powder, cracking,
distributing and stirring
- Application to FC research
-
・
Mixing/distributing catalyst ink
Crushing powder, cracking,
distributing and stirring
Mixing/distributing catalyst ink
Crushing powder, cracking,
distributing and stirring
Application to FC research
Mixing/distributing catalyst ink
Applying various kinds of inks
Fabricating catalyst layer
Applying various kinds of inks
Fabricating catalyst layer
Heating press (for small cells)
Replicating catalyst layer onto
electrolyte membrane
Thermocompression bonding
of sub-gasket and gas diffusion layer (GDL)
Heating press (for full size cells)
Replicating catalyst layer onto
electrolyte membrane
Adhesion of separators
Measurement of viscosity and
viscoelasticity of liquids and slurries
Viscosity control of catalyst ink
Measurement of viscosity and
viscoelasticity of liquids and slurries
Viscosity control of catalyst ink
Measurement of particle size distribution
of fine particles dispersed in a solvent
Particle size distribution measurement
in catalyst ink stock solution
〇Control of power generation
atmosphere of MEA evaluation cell
(temperature, humidity, pressure, gas type)
Mix the supply gas with any composition
Stable supply from small flow rate to large flow rate
Temperature: Room temperature to 80 ℃
Dew point: Room temperature to 80 ℃
Pressure: Standard pressure to 300 kPa-abs
Supply gas: H2, Air, O2 , N2 , He
Flow control: 0.02 to 10 L / min
〇Electrochemical characterization
Potentiometer
Current range ± 20 A
Impedance analyzer
footnote: CO gas available
in-line mass spectrometer
Feature: Supports high temperature
power generation test (~ 150°C)
Temperature: Room temperature to 150 °C
Dew point: 40 °C to 120 °C
Pressure: Standard pressure to 300 kPa-abs
Supply gas: H2, Air, O2 , N2
Feature: Supports power generation
test for full size cells (~ 5 kW)
Temperature: Room temperature to 90 °C
Dew point: 40 °C to 80 °C
Pressure: Standard pressure to 300 kPa-abs
Supply gas: H2, Air , N2
Evaluation of catalytic activity
Evaluation of Electrochemical Effective Specific Surface Area (ECSA)
Qualitative and quantitative analysis of ionic components in solution
nalysis of deterioration phenomenon by quantification of decomposition products
(F- , SO42- etc.) of
Qualitative and quantitative analysis
of components in solution
Measurement of decomposition
products of electrolyte membrane
Qantitative anud quantitative analysis of gas components
Analysis of impurities in the gas supplied to the fuel cell
Measurement of catalyst carrier deterioration rate by quantifying CO2 concentration in cell exhaust gas
Observation of nanoscale structure
Analysis of crystal structure
Element mapping
Observation of frozen samples
Observation of liquid sample
MEA, structural observation of
electrolyte membrane
Observation of 3D structure of
catalyst carrier
Crystal structure analysis of catalyst,
elemental analysis
Observation of cryostructure of
bound ink and ionomer dispersion
solution
Ink and ionomer dispersion solution
in liquid observation
Observation of surface and cross
section
Elemental analysis
Observation of the surface and cross
section of the catalyst layer
Measurement of catalyst layer
thickness
Creation of SEM, TEM observation
cross section
Creating a cross section of MEA
Elemental analysis
Quantification of catalyst loading
(calibration curve method)
Observation of surface topography
Measurement of height
Evaluation of defects
(unevenness, cracks, etc.) in the
catalyst layer Measurement of thickness
Measurement of specific surface area, pore volume, pore distribution
Evaluation of the pore structure of the catalyst powder and catalyst layer
True volume measurement
True volume measurement of catalyst layer and gas diffusion layer
Oxygen diffusion resistance measurement of porous material
Oxygen diffusion resistance measurement of catalyst layer and gas diffusion layer
(under temperature and humidity control environment)
Evaluation of water vapor sorption characteristics (weight method)
Measurement of water vapor adsorption characteristics of catalyst layer, gas diffusion layer, and electrolyte membrane (~ 80 °C)
Measurement of surface area of metal particles
Measurement of specific surface area of catalytic metal
Evaluation of thermal stability
Analysis of decomposition reaction
Measurement of catalyst / carrier weight ratio by combustion of carrier carbon
Evaluation of thermal stability of catalyst carriers and ionomer materials
Evaluation of crystal structure
Evaluation of crystallite size and degree of alloying of catalyst metal
Measurement of crystallinity of electrolyte membrane
Evaluation of materials' structures
Structural analysis of hydrophilic/hydrophobic parts of electrolyte membrane (humidification possible at room temperature)
Evaluation of particle size distribution, periodic structure, and orientation of catalyst particles
Analysis of chemical structure
Measurement of self-diffusion coefficient
Structural analysis of electrolyte polymers and deterioration products
Measurement of self-diffusion coefficient of water in electrolyte membrane
Nuclear magnetization relaxation time measurement
Analysis of electrolyte polymers and water motility
Nuclear magnetization relaxation time measurement
Analysis of electrolyte polymers and water motility
Identification and quantification of substances
Analysis of electrolyte membrane deterioration mechanism
Identification of substance
Quantification of substances
Analysis of electrolyte membrane deterioration mechanism
Surface shape evaluation (humidification possible at room temperature)
Surface viscoelasticity evaluation
Surface current image evaluation (humidification possible at room temperature)
Observation of surface structure of electrolyte membrane, mapping of mechanical properties
(humidification possible at room temperature)
Evaluation of viscoelastic properties of materials
Dynamic Viscoelasticity Measurement of Electrolyte Membrane
Evaluation of elastic modulus characteristics of materials
valuation of temperature / humidity sensitivity of mechanical strength (elastic modulus, yield point, plastic deformation) of electrolyte membrane
Measurement of gas permeability of polymer membrane
imultaneous measurement of hydrogen / oxygen permeability of electrolyte membrane (high temperature / high humidification atmosphere possible)
Evaluation of water transport characteristics of electrolyte membrane and MEA
Measurement of water permeability and electroosmosis coefficient
Simultaneous evaluation of water content and proton conductivity of electrolyte membrane
In-plane proton conductivity measurement in the thickness direction of the electrolyte membrane
Elemental analysis of electrolyte membrane cleaning solution
Endurance test Quantitative amount of platinum in wastewater