To receive a copy of any of the notes below, please send your request with your full contact details to:
| APP# | Title |
|---|---|
| 105 | New: Shedding New Light on Phototcatalyst Performance. Part 2: Chemisorption Capacity and Reactivity |
| 104 | New: Shedding New Light on Phototcatalyst Performance. Part 1: Surface Area and Pore Size Analysis |
| 102 | Graphene and Graphene-Related Materials: Fundamental Techniques for Structural Analysis |
| 101 | Surface Area, Pore Structure and Density of Hair Fibers |
| 100 | Through Pore Size Characterization of Filtration Materials |
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| TN# | Title |
| 76 | Comparison of Single Point BET and Multipoint BET Surface Areas |
| 75 | Effect of Sample Chamber to Reference Chamber Volume Ratio Effect on Accuracy of Gas Pycnometry Measurements |
| 74 | Reproducibility of Measurements Made with the Porometer 3G |
| 73 | Effects of Using Different Wetting Fluids on Capillary Flow Porometer Results |
| 72 | Temperature Programming Techniques for the Evaluation of Brønsted and Lewis Acid Sites in Zeolite Catalysts. |
| 71 | On the Choice of Valves and Valve Sealing Materials for Gas Sorption Analyzers. |
| 70 | Pore Size Characterization of Filtration Materials |
| 69 | Aspects of the 2015 IUPAC Recommendations for Physical Adsorption Characterization. |
| 63 | Intelligent Design Eliminates Potential Cross-Contamination in Gas Sorption Instruments. |
| 62 |
Pulse Titration on the Chemstar. |
| 61 |
Temperature Programming Capabilities of the Chemstar. |
| 60 |
Porometry, Shape Factor, Contact Angle and Tortuosity. |
| 59 |
Physical Adsorption Characterization of Microporous Materials: Vacuum vs. Flow Outgassing. |
| 58 |
Optimizing Gas Sorption Parameters to Minimize B.E.T. Surface Area Analysis Time. |
| 57 |
Using The Aquadyne DVS to Date Archaeological Material. |
| 56 |
Water Vapor Sorption by Pharmaceuticals. |
| 55 |
Obtaining High Resolution, Low Pressure Isotherms with a Constant Volume/VectorDose™ Method |
| 54 |
Automated Software Assistant for the Proper Calculation of BET Area of Microporous Materials. |
| 53 | Application of Quenched Solid Density Functional Theory (QSDFT) for Pore Size Analysis of Cylindrical and Spherical Pore Carbons. |
| 52 | Adsorptives for Physisorption Experiments: Selection and their Properties. |
| 51 | Low Surface Area Analysis by Krypton Adsorption at 77.4K . |
| 50 | Physical Adsorption, comments on Hysteresis Scanning, Part 1. |
| 49 | Measuring Pores in the Walls of Hollow Fiber Membranes (Porometer 3G) |
| 48 | Accurate Pore Sizing of Track-Etched Membranes (Porometer 3G) |
| 47 | Differentiating Air Filters by Capillary Flow Porometry (Porometer 3G) |
| 45 | Kinetics of Water Vapor Sorption by Fruit (Aquadyne DVS) |
| 44 | Water Vapor Sorption by Milk Powders (Aquadyne DVS) |
| 42 | Mercury Porosimetry for the Characterization of Specialty Papers (PoreMaster) |
| 41 | Thermal conductivity detectors (TCD’s) for flow-based measurements |
| 40 |
Application of QSDFT (quenched solid density functional theory) - a novel density functional theory for an accurate pore size analysis of disordered porous carbons |
| 39 | Characterizing thin-film low-k dielectrics using krypton adsorption |
| 38 | Pycnometers Aid Osteoporosis Research |
| 37 | Hydrogen Adsorption: Experiment and Application |
| 36 | Comments on the Proper Selection of Adsorption or Desorption Branches for Mesopore Size Analysis (Gas Sorption) |
| 35 | Micropore Size Analysis of Porous Carbons Using CO2 Adsorption at 273 K (0°C) |
| 34 | Some Aspects of Quantachrome's NOVA (NO Void Analysis) Technology |
| 33 | Pore Network Modeling from Mercury Intrusion/Extrusion Porosimetry |
| 32 | Practical Methods to Prevent Sample Elutriation in Vacuum Volumetric Gas Sorption Analyzers |
| 31 | Pore Size Analysis by Gas Adsorption, Part I: Aspects of the Application of Density Functional Theory |
| 30 | Tapped Density in the Pharmaceutical Industry (Autotap) |
| 29 | Elevated Saturation Vapor Pressure of Liquid Nitrogen (Why Po > P ambient) |
| 28 | Attaching a Mass Spectrometer to the ChemBET |
| 27 | State-of-the-Art Zeolite Characterization: Argon Adsorption at 87.3 K and Advanced Density Functional Theory Methods (NLDFT, QSDFT) |
| 26 | Percentage of Solids in a Slurry (Pycnometer) |
| 25 | Catalyst Evaluation by Temperature Programmed Reaction (TPR) |
| 24 | Geometric (Envelope) Density without Mercury (Tap Density) |
| 23 | Comparing Features and Benefits of Various Cryogenic Bath Level and Temperature Control Devices |
| 22 | Alternate Method to Determine Density of Cement (Pycnometer) |
| 21 | Achieving High Accuracy and Precision in Helium Pycnometry |
| 20 | Submicropore Analysis (MIP & Gas Pycnometer) |
| 19 | A Method for the Determination of Ambient Temperature Adsorption of Gases on Porous Materials (Pycnometer) |
| 18 | Determination of Micropore Surface Area by Nitrogen Adsorption (t-plot method) |
| 17 | Combining Fast Turnaround Analytical Techniques for the Rapid Estimation of Micropore Volume and Micropore Surface Area |
| 16 | Effect of Coating of Catalyst Supports in Mercury Porosimetry |
| 11 | Isotherms from Mercury Porosimetry |
| 10 | Pore Spectra from Mercury Porosimetry |
| 9 | Hysteresis in Mercury Porosimetry |
| 8 | Desorption Isotherms by Continuous Flow (Flow surface area instruments) |
| 7 | B.E.T. Constant and Site Occupancy |
| 6 | Chemisorption Surface Titration (Pulse / Flow method) |
| 5 | Representative Sampling for Surface Area Measurements (Rifflers) |
| 4 | Particle Structure (Surface Area) |
| 3 | Low Surface Area Using Krypton in Flow Instruments (Monosorb) |
| 1-2 | Small Volume Calibration for BET and Low Surface Area Measurements (Monosorb) |
| To receive a copy of any Quantachrome Technical Note(s), please send your request with your full contact details to: support.qt@anton-paar.com |
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