Multi-Metal Dispersion
Suitable for multi-metal interfaces, electrochemistry, catalysis and composite-material research.
SciMater™ Two-Dimensional Materials
SciMaterTM MXene Dispersions (43 Series)
The SciMater™ 43-series MXene dispersion portfolio includes Mo₂TiC, Mo₂Ti₂C₃, Nb₄C₃ and V₄C₃ two-dimensional transition-metal carbides. All products are supplied as few-layer / predominantly single-layer dispersions at a nominal concentration of 5 mg/mL for electrochemistry, catalysis, thin-film fabrication, sensing, interface studies and composite-material research.
Product Overview
Materials and product formsThe 43-series MXene dispersions consist of few-layer or predominantly single-layer Mo₂TiC, Mo₂Ti₂C₃, Nb₄C₃ and V₄C₃ two-dimensional sheets. Their liquid form is suitable for direct use in thin films, coatings, electrodes, catalytic systems and composite-material research.
This series includes multi-metal carbides as well as niobium-based and vanadium-based carbides. Differences in metal composition may influence sheet-surface chemistry, electronic structure, interfacial behavior and experimental performance.
Multi-Metal Dispersion
Suitable for energy storage, catalysis, thin films and two-dimensional interface assembly.
Niobium-Based Dispersion
Suitable for electrochemistry, photothermal research, conductive films and functional interfaces.
Vanadium-Based Dispersion
Suitable for ion storage, catalysis, sensing and fundamental two-dimensional material research.
Concentration Specification
Nominal product concentrationProduct Concentration
5 mg/mL Mo₂TiC, Mo₂Ti₂C₃, Nb₄C₃ and V₄C₃ are all supplied as few-layer / predominantly single-layer dispersions.
Core Product Parameters
Model comparison| Chemical Formula / Model | Research Notation | Catalog Series | Composition Type | Product Form | Concentration | Primary Applications |
|---|---|---|---|---|---|---|
| Mo2TiC | Mo2TiCTx | MXene Dispersions 43 Series | Multi-Metal Carbide | Few-Layer / Predominantly Single-Layer Dispersion | 5 mg/mL | Multi-metal interfaces, electrochemistry, catalysis and composite materials |
| Mo2Ti2C3 | Mo2Ti2C3Tx | Multi-Metal Carbide | Energy storage, catalysis, thin films and two-dimensional interface assembly | |||
| Nb4C3 | Nb4C3Tx | Niobium-Based Carbide | Electrochemistry, photothermal research, conductive films and functional interfaces | |||
| V4C3 | V4C3Tx | Vanadium-Based Carbide | Ion storage, catalysis, sensing and two-dimensional material research |
Typical Applications
Research scenarios01Electrochemical Energy Storage
Electrode preparation, ion-storage research, supercapacitors and two-dimensional conductive-network studies.
02Catalysis Research
Active-component loading, interfacial catalysis and investigations of possible multi-metal synergistic effects.
03Thin Films and Coatings
Vacuum filtration, spin coating, spray coating, drop casting and blade coating for film preparation.
04Composite Materials
Combination with polymers, oxides, carbon materials and other two-dimensional materials.
05Sensors and Devices
Humidity, gas, biochemical and strain-sensing research using two-dimensional functional interfaces.
06Fundamental Materials Research
Metal composition, sheet structure, dispersion stability and interfacial-behavior studies.
Instructions for Use
Recommended handling workflow- 01 Inspect the Dispersion Check the dispersion state, color and container seal before use. Mild sedimentation may be addressed by slowly shaking or gently mixing the container.
- 02 Mix Gently Use vortex mixing, slow stirring or brief low-power ultrasonication. Avoid prolonged high-power treatment and significant temperature rise.
- 03 Adjust the Concentration Dilute gradually according to the experimental requirement and record the dispersion medium, dilution ratio and final concentration.
- 04 Prepare the Sample Use vacuum filtration, drop casting, spin coating, spray coating, blade coating, electrode-slurry preparation or composite mixing as required.
- 05 Reseal and Store Reseal immediately after use, protect from light and minimize exposure to air and repeated temperature fluctuations.
Different MXene dispersion formulas should not be mixed or used interchangeably without prior verification. For comparative or composite experiments, use consistent concentration, processing time, film thickness and sample-preparation conditions.
Frequently Asked Questions
Selection and handling01Do all four products have the same concentration?
Yes. The Mo₂TiC, Mo₂Ti₂C₃, Nb₄C₃ and V₄C₃ few-layer / predominantly single-layer dispersions are all supplied at a nominal concentration of 5 mg/mL.
02What is the difference between Mo₂TiC and Mo₂Ti₂C₃?
Their elemental ratios and carbon-layer compositions are different. These compositional differences may produce different electronic structures, surface chemistry and experimental behavior.
03Can the performance of different models be compared directly?
Comparative experiments should use consistent concentrations, sample-preparation procedures, film thicknesses and testing conditions. Batch-specific sheet size, layer-number distribution and surface condition should also be considered.
04How should mild sedimentation be handled?
Slowly shake or gently mix the dispersion first. Short-duration, low-power treatment may also be used. Avoid prolonged high-power ultrasonication, which may change the lateral dimensions of the MXene sheets.
05How should the dispersions be stored?
Store sealed and protected from light while minimizing air exposure. Avoid elevated temperatures, strong light and repeated freeze–thaw cycles.
This information is provided for research-product selection and experimental-design reference. Actual lateral size, layer-number distribution, surface terminations and batch stability should be confirmed using the corresponding batch-specific technical data.
