Our world-leading technology encompasses solutions
for the characterization of particles, powders, and porous materials.
Surface Area
Surface area by gas adsorption including BET surface area
Porosity
Pore size, volume, and distribution by gas adsorption and mercury porosimetry
Density
Absolute density of solids, powders, and slurries by gas pycnometry. Automated envelope density of irregular solids and compressed bulk density (T.A.P).
Powder Flow
Shear and dynamic measurements of powder rheology and particle interactions
Activity
Catalyst activity including chemisorption, temperature-programmed reactions, and lab-scale reactor systems
OUR SOLUTIONS
Micromeritics offers the most comprehensive portfolio of high-performance instruments
to characterize the materials required to achieve a more sustainable future
INTERACTIONS OF H2 ON SUPPORTED Ni CATALYST
3Flex CHEMISORPTION
Offers physisorption and static/dynamic chemisorption for characterizing catalysts and their supports
- Understand multi-metal catalysts’ effects on activation and adsorption of active species
- Select catalysts providing a higher turnover frequency
- Investigate influence of heat of adsorption
AutoChem III
Utilizes dynamic techniques to characterize the materials active sites
- Optimize adsorption and dissociation of H2/O2 on electrolysis electrodes
- Understand if desorption occurs near reaction conditions
- Measure and quantify acid or base sites to optimize reactivity and selectivity
DECONVOLUTION CO2 DESORBED BY CaO/MgO
PRESSURE IMPACT ON REDUCTION TEMPERATURE
Cu-OXIDE CATALYST
ICCS
Provides in-situ characterization to understand the effect of reaction conditions on the catalyst
- Understand changes in performance over extended periods
- Determine deactivation mechanism to maximize the catalysts’ lifetime
- Monitor changes in active sites, oxidative state, metal dispersion, and desorption behavior
FR/MR REACTOR SYSTEMS
Benchtop reactor studies to understand and optimize catalyst performance
- Understand reaction kinetics to optimize operating parameters and conversion
- Measure selectivity, efficiency, and lifetime of catalysts
- Study of reactions requiring a liquid/gas separator at pressure and temperature
REDUCTION OF CO2 IN THE SABATIER REACTION
COMPLETE PORE SIZE DISTRIBUTION (PSD)
USING DUAL NLDFT FOR ACTIVATED CARBON
3Flex
High-performance adsorption analyzer for measuring surface area, pore size and volume
- Understand adsorbent regeneration cost and best operating parameters
- Optimize pore size to maximize uptake capacity of the adsorbent
- Predict the selectivity of a gas mixture using Ideal Adsorption Solution Theory (IAST)
BreakThrough Analyzer
Precise characterization of adsorbent or membrane under process relevant conditions
- Lifetime and cycling studies to choose best adsorbent technology
- Measure kinetic performance of adsorbents
- Understand humidity effects for CO2/N2 competitive adsorption
C02 BREAKTHROUGH CURVES SiAl LOADED WITH PEI
NaY ZEOLITE CUMULATIVE INTRUSION VS PORE SIZE
AutoPore
Mercury porosimetry analysis permits detailed porous material characterization
- Characterize pore size to understand diffusion into adsorption sights
- Study and optimize pore size distribution, total pore volume, percent porosity, particle size, and total surface area
- Assure reproducible adsorbent manufacturing process
HVPA
Static volumetric method to obtain high-pressure adsorption and desorption isotherms
- Investigate the quantity of H2 or CO2 adsorbed
- Increase productivity and reduce cost by optimizing the adsorption/ desorption cycle
- Study candidate materials and CO2 storage sites
H2 ADSORPTION ON MICROPOROUS CARBON
- CATALYSTS INSTRUMENTS
-
INTERACTIONS OF H2 ON SUPPORTED Ni CATALYST
View Instrument Details3Flex CHEMISORPTION
Offers physisorption and static/dynamic chemisorption for characterizing catalysts and their supports
- Understand multi-metal catalysts’ effects on activation and adsorption of active species
- Select catalysts providing a higher turnover frequency
- Investigate influence of heat of adsorption
View Instrument DetailsAutoChem III
Utilizes dynamic techniques to characterize the materials active sites
- Optimize adsorption and dissociation of H2/O2 on electrolysis electrodes
- Understand if desorption occurs near reaction conditions
- Measure and quantify acid or base sites to optimize reactivity and selectivity
DECONVOLUTION CO2 DESORBED BY CaO/MgO
PRESSURE IMPACT ON REDUCTION TEMPERATURE
Cu-OXIDE CATALYSTView Instrument DetailsICCS
Provides in-situ characterization to understand the effect of reaction conditions on the catalyst
- Understand changes in performance over extended periods
- Determine deactivation mechanism to maximize the catalysts’ lifetime
- Monitor changes in active sites, oxidative state, metal dispersion, and desorption behavior
View Instrument DetailsFR/MR REACTOR SYSTEMS
Benchtop reactor studies to understand and optimize catalyst performance
- Understand reaction kinetics to optimize operating parameters and conversion
- Measure selectivity, efficiency, and lifetime of catalysts
- Study of reactions requiring a liquid/gas separator at pressure and temperature
REDUCTION OF CO2 IN THE SABATIER REACTION
- ADSORBENTS AND MEMBRANES INSTRUMENTS
-
COMPLETE PORE SIZE DISTRIBUTION (PSD)
USING DUAL NLDFT FOR ACTIVATED CARBONView Instrument Details3Flex
High-performance adsorption analyzer for measuring surface area, pore size and volume
- Understand adsorbent regeneration cost and best operating parameters
- Optimize pore size to maximize uptake capacity of the adsorbent
- Predict the selectivity of a gas mixture using Ideal Adsorption Solution Theory (IAST)
View Instrument DetailsBreakThrough Analyzer
Precise characterization of adsorbent or membrane under process relevant conditions
- Lifetime and cycling studies to choose best adsorbent technology
- Measure kinetic performance of adsorbents
- Understand humidity effects for CO2/N2 competitive adsorption
C02 BREAKTHROUGH CURVES SiAl LOADED WITH PEI
NaY ZEOLITE CUMULATIVE INTRUSION VS PORE SIZE
View Instrument DetailsAutoPore
Mercury porosimetry analysis permits detailed porous material characterization
- Characterize pore size to understand diffusion into adsorption sights
- Study and optimize pore size distribution, total pore volume, percent porosity, particle size, and total surface area
- Assure reproducible adsorbent manufacturing process
View Instrument DetailsHVPA
Static volumetric method to obtain high-pressure adsorption and desorption isotherms
- Investigate the quantity of H2 or CO2 adsorbed
- Increase productivity and reduce cost by optimizing the adsorption/ desorption cycle
- Study candidate materials and CO2 storage sites
H2 ADSORPTION ON MICROPOROUS CARBON
Carbon capture, utilization, and storage, CCUS, is an important portfolio of emissions reduction technologies.
A clean energy future includes electric vehicles, valorizing CO2Â for synthetic fuels,
and industrial plants using carbon capture
CO2 CAPTURE
Adsorbents, Membranes
- Effect of water on performance
- Tailor pore size of membrane for application
- Optimize adsorption / desorption cycle to minimize cost
CO2 STORAGE
Adsorbents, Membranes
- Determine lifetime, cycling performance
and adsorbent CO2 capacity - Understand local pollutants’ effect on adorbent cycle life
CO2 UTILIZATION
Catalysts
- Evaluate effects of time-on-stream, temperature, and pressure on process economics
- Textural characterization of catalyst support
- Ascertain deactivation mechanisms
- Optimize metal dispersion and activity
- Determine reaction kinetics, activity, and selectivity of the catalyst
Applications
Industrial
Capture
Amine
Scrubber
Direct
Air Capture
Applications
Metal Organic Framework
Function-
alized Porous Material
Activated Carbon
Applications
Synthetic Fuels
Shipping
E-NH3, E-methanol
Aviation
E-kerosene
Relevant Resources
Adsorbents and Membranes
- Analysis of adsorbents for direct air capture of carbon dioxide using breakthrough analysis
- Using the ASAP 2020 for Determining the Hydrogen Adsorption Capacity of Powders and Porous Materials
- Micropore Analysis of Zeolites Using the ASAP 2420
- Adding a Custom Model to the NLDFT Library: A CO2 GCMC Model for Carbons
- Characterization of Carbons Using a Micromeritics 3Flex
- Adding a custom model to the NLDFT library – a CO2 GCMC model for carbons
- Carbon Dioxide Characterization of Carbons with the TriStar II 3020
- Diffusion of Nitrogen and Methane in Clinoptilolites Tailored for N2-CH4 Separation (ASAP 2010)
- The Heat of Adsorption of Hydrogen Gas on Lanthanum Pentanickel
- Multicomponent Breakthrough Adsorption Water/ethanol Competitive Adsorption On A Zeolite
Catalyst
- Paper: On the Application of an In Situ Catalyst Characterization System (ICCS) and a Mass Spectrometer Detector as Powerful Techniques for the Characterization of Catalysts
- Paper: Confirmation of Pore Formation Mechanisms in Biochars and Activated Carbons by Dual Isotherm Analysis
- Effect of O2 Traces in the Carrier Gas on Quantifying the Active Species in Catalysts
- Evaluating Catalyst Substrates with the GeoPyc
- Temperature-Programmed Reduction Using the AutoChem
- Characterization of Acid Sites Using Temperature-Programmed Desorption
- Characterization of Supported Palladium, Hydrogen Sorption – by Jason Exley
- Characterization of Vanadia Catalysts Supported on Different Carriers by TPD TPR
- Introduction to Chemical Adsorption Analytical Techniques and their Applications to Catalysis
- Microchannel Reactor for Fischer-Tropsch Synthesis- Adaptation of a Commercial Unit (PID-Micromeritics Microactivity Reference)
- PID App Note: Customer Success Story
Adsorbents and Membranes
- Advanced Pore Size Analysis of Microporous and Ultra-microporous Materials
- Breakthrough Adsorption: Theory and Analysis of Adsorption in Zeolites and Metal-organic Frameworks (MOFs)
- Carbons, Zeolites and Molecular Sieves: Material Characteristics and Solutions for Characterization
- Direct Air Capture (DAC) of CO2 and the Important Role of Porous Materials in DAC Technology
- Gas Sorption Characterization of Metal Organic Frameworks (MOFs)
- MOF You Tube Playlist
Catalyst
- Important and powerful techniques used in the characterization of solids
- A Detailed Procedure for a Catalytic Process
- Structured Catalysts and Reactors for the Transformation of CO2 to Useful Chemicals
- A Detailed Procedure for a Catalytic Process
- Chemisorption You Tube Playlist
- Micromeritics AutoChem II 2920 Automated Catalyst Characterization System
- 3Flex: Surface and Catalyst Characterization
- Application notes
-
Adsorbents and Membranes
- Analysis of adsorbents for direct air capture of carbon dioxide using breakthrough analysis
- Using the ASAP 2020 for Determining the Hydrogen Adsorption Capacity of Powders and Porous Materials
- Micropore Analysis of Zeolites Using the ASAP 2420
- Adding a Custom Model to the NLDFT Library: A CO2 GCMC Model for Carbons
- Characterization of Carbons Using a Micromeritics 3Flex
- Adding a custom model to the NLDFT library – a CO2 GCMC model for carbons
- Carbon Dioxide Characterization of Carbons with the TriStar II 3020
- Diffusion of Nitrogen and Methane in Clinoptilolites Tailored for N2-CH4 Separation (ASAP 2010)
- The Heat of Adsorption of Hydrogen Gas on Lanthanum Pentanickel
- Multicomponent Breakthrough Adsorption Water/ethanol Competitive Adsorption On A Zeolite
Catalyst
- Paper: On the Application of an In Situ Catalyst Characterization System (ICCS) and a Mass Spectrometer Detector as Powerful Techniques for the Characterization of Catalysts
- Paper: Confirmation of Pore Formation Mechanisms in Biochars and Activated Carbons by Dual Isotherm Analysis
- Effect of O2 Traces in the Carrier Gas on Quantifying the Active Species in Catalysts
- Evaluating Catalyst Substrates with the GeoPyc
- Temperature-Programmed Reduction Using the AutoChem
- Characterization of Acid Sites Using Temperature-Programmed Desorption
- Characterization of Supported Palladium, Hydrogen Sorption – by Jason Exley
- Characterization of Vanadia Catalysts Supported on Different Carriers by TPD TPR
- Introduction to Chemical Adsorption Analytical Techniques and their Applications to Catalysis
- Microchannel Reactor for Fischer-Tropsch Synthesis- Adaptation of a Commercial Unit (PID-Micromeritics Microactivity Reference)
- PID App Note: Customer Success Story
- Videos
-
Adsorbents and Membranes
- Advanced Pore Size Analysis of Microporous and Ultra-microporous Materials
- Breakthrough Adsorption: Theory and Analysis of Adsorption in Zeolites and Metal-organic Frameworks (MOFs)
- Carbons, Zeolites and Molecular Sieves: Material Characteristics and Solutions for Characterization
- Direct Air Capture (DAC) of CO2 and the Important Role of Porous Materials in DAC Technology
- Gas Sorption Characterization of Metal Organic Frameworks (MOFs)
- MOF You Tube Playlist
Catalyst
- Important and powerful techniques used in the characterization of solids
- A Detailed Procedure for a Catalytic Process
- Structured Catalysts and Reactors for the Transformation of CO2 to Useful Chemicals
- A Detailed Procedure for a Catalytic Process
- Chemisorption You Tube Playlist
- Micromeritics AutoChem II 2920 Automated Catalyst Characterization System
- 3Flex: Surface and Catalyst Characterization
- Links and Brochures
How Can We Help?
Customers choose Micromeritics for our diverse world leading high-performance systems, expert application staff, and factory-trained engineers spanning many industries around the globe. We are here to provide sustainable solutions for Net-Zero Technologies and accelerate both R&D and commercialization with quality data, customer service, our particle testing lab, and virtual or onsite product demonstrations.