SciMater™ Multilayer MXene Powder (43 Series, Mo2TiC, Mo2Ti2C3, Nb4C3, V4C3)-SCI Materials Hub

Product Overview

MXenes are two-dimensional layered transition-metal carbides, nitrides, or carbonitrides. This page presents the SciMater™ 43-series MXene portfolio, which includes Mo₂TiC, Mo₂Ti₂C₃, Nb₄C₃, and V₄C₃.

The series includes both multi-metal and single-transition-metal carbide systems. Their surfaces commonly contain terminations such as —O, —OH, and —F, which are often represented by T_x in scientific notation. Composition and product form may affect sheet structure, interfacial activity, electrochemical behavior, dispersion, and processability. Actual lateral size, thickness, layer-number distribution, surface terminations, moisture content, and oxidation state should be confirmed using batch-specific technical data.

Mo₂TiC

Multi-Metal MXene

Available as multilayer powder for multi-metal carbide structures, interfacial reactions, electrochemistry, catalysis, and composite research.

Mo₂Ti₂C₃

Multi-Metal MXene

Available as multilayer and few-layer powders for catalysis, energy storage, thin films, composites, and two-dimensional interface research.

Nb₄C₃

Niobium-Based MXene

Available as multilayer and few-layer powders for electrochemistry, photothermal research, conductive composites, and functional films.

V₄C₃

Vanadium-Based MXene

Available as multilayer and few-layer powders for ion storage, catalysis, sensing, and fundamental two-dimensional material research.

Multilayer Powder Exhibits distinct stacked-layer structures, is convenient to weigh, store, and formulate, and is suitable for routine electrochemistry, composite preparation, structural studies, and subsequent delamination.

Few-Layer / Predominantly Single-Layer Powder Contains predominantly thinner sheets and more accessible interfaces, supporting thin-film, sensing, catalytic, and two-dimensional interface-assembly research.

Packaging Specifications

Standard Powder Packaging

0.1 g 0.5 g 1 g 5 g 10 g Applicable to multilayer and few-layer / predominantly single-layer powders.

Core Product Comparison

Chemical Formula / Model	Research Notation	Catalog Series	Composition Type	Product Form	Layer Level / State	Primary Applications	Selection Advantages
Mo₂TiC	Mo₂TiCT_x	MXene Powders 43 Series	Multi-Metal Carbide	Multilayer Powder	Stacked sheets	Structure, electrochemistry, catalysis, and composites	Suitable for formulation and layered-structure research
Mo₂Ti₂C₃	Mo₂Ti₂C₃T_x		Multi-Metal Carbide	Multilayer Powder	Stacked sheets	Energy storage, catalysis, composites, and structural research	Suitable for formulation and subsequent delamination
Mo₂Ti₂C₃	Mo₂Ti₂C₃T_x		Multi-Metal Carbide	Few-Layer / Predominantly Single-Layer Powder	Few-layer or single-layer sheets	Thin films, sensing, catalysis, and interface assembly	Suitable for high accessible-interface utilization
Nb₄C₃	Nb₄C₃T_x		Niobium-Based Carbide	Multilayer Powder	Stacked sheets	Electrochemistry, photothermal research, and conductive composites	Suitable for formulation and structural research
Nb₄C₃	Nb₄C₃T_x		Niobium-Based Carbide	Few-Layer / Predominantly Single-Layer Powder	Few-layer or single-layer sheets	Thin films, photothermal applications, sensing, and interfaces	Suitable for functional studies of two-dimensional sheets
V₄C₃	V₄C₃T_x		Vanadium-Based Carbide	Multilayer Powder	Stacked sheets	Ion storage, catalysis, and composite materials	Suitable for electrode formulation and structural research
V₄C₃	V₄C₃T_x		Vanadium-Based Carbide	Few-Layer / Predominantly Single-Layer Powder	Few-layer or single-layer sheets	Sensing, catalysis, thin films, and interface research	Suitable for high-specific-surface-area systems

Actual lateral size, thickness, layer-number distribution, surface terminations, moisture content, and oxidation state should be confirmed using the technical data for the relevant batch.

Quick Selection Recommendations

Research Requirement	Recommended Model	Recommended Product Form	Why This Option Fits
Multi-metal carbide structure, composition, and layered-architecture research	Mo₂TiC	Multilayer Powder	Suitable for composition-focused studies, formulation, and characterization of stacked layered structures.
Multi-metal energy storage, catalysis, composites, and subsequent delamination	Mo₂Ti₂C₃	Multilayer Powder	Convenient for weighing and formulation while retaining a layered structure for further exfoliation.
Multi-metal thin films, sensing, catalysis, and high-interface-area studies	Mo₂Ti₂C₃	Few-Layer / Predominantly Single-Layer Powder	Provides thinner sheets and a greater proportion of accessible interfaces.
Electrochemistry, photothermal research, conductive composites, and structural studies	Nb₄C₃	Multilayer Powder	Suitable for routine formulation, structural characterization, and composite preparation.
Photothermal films, sensing, functional interfaces, and thin-sheet studies	Nb₄C₃	Few-Layer / Predominantly Single-Layer Powder	Supports two-dimensional film formation and interface-sensitive experiments.
Ion-storage electrodes, catalysis, composites, and formulation research	V₄C₃	Multilayer Powder	Suitable for electrode formulation, bulk mixing, and stacked-sheet structural studies.
Sensing, catalysis, thin films, and high-specific-surface-area systems	V₄C₃	Few-Layer / Predominantly Single-Layer Powder	Provides more exposed two-dimensional interfaces for surface-sensitive applications.

Product selection should also consider batch-specific lateral size, layer-number distribution, surface terminations, moisture content, oxidation state, dispersion medium, and final processing conditions.

Typical Applications

01Electrochemical Energy Storage

Ion batteries, supercapacitors, electrode additives, and two-dimensional conductive frameworks, including capacity, rate-capability, and cycling studies.

02Catalysis Research

Interfacial catalysis, active-component loading, and surface-reaction studies, including use as a conductive substrate in composite catalysts.

03Conductive Composites

Combination with polymers, carbon materials, metal oxides, and other two-dimensional materials to study conductivity and interfacial synergy.

04Thin Films and Coatings

Few-layer powders can be processed by vacuum filtration, spray coating, spin coating, drop casting, or blade coating to prepare functional films and composite coatings.

05Sensors and Devices

Humidity, gas, biochemical, and strain-sensing research using two-dimensional interfaces and surface-functional-group interactions.

06Fundamental Materials Research

Sheet structure, surface terminations, metal composition, oxidation behavior, ion intercalation, and two-dimensional heterointerfaces.

Instructions for Use

01 Select the Product Form Select multilayer powder or few-layer / predominantly single-layer powder according to the experimental objective, and verify the chemical formula, product form, and batch documentation.
02 Weigh and Pre-Wet Add a small amount of dispersion medium to the powder first and wet it thoroughly before gradually adding more solvent to reduce floating powder and large agglomerates.
03 Assist Dispersion Vortex mixing, mechanical stirring, or low-power ultrasonication may be used. Control temperature rise and avoid prolonged high-power treatment.
04 Prepare the Sample Use vacuum filtration, drop casting, spin coating, spray coating, blade coating, electrode-slurry preparation, or composite mixing as required. Record concentration and processing conditions.
05 Store and Recheck Reseal promptly and protect from light. Before reuse, check color, dispersion state, oxidation, and signs of caking.

When handling dry powders, wear laboratory gloves, safety goggles, and an appropriate dust mask or respirator, and weigh the material in a fume hood or under local exhaust. For oxidation-sensitive experiments, minimize exposure to air, elevated temperature, and strong light.

Frequently Asked Questions

01What is the difference between multilayer and few-layer / predominantly single-layer powders?

Multilayer powder retains more distinct stacked-layer structures and is generally easier to store, weigh, and formulate. Few-layer / predominantly single-layer powder contains thinner sheets and more accessible interfaces, making it more suitable for thin films, sensing, catalysis, and interface assembly.

02Does “few-layer / predominantly single-layer” mean that every sheet is strictly monolayer?

Not necessarily. The description generally means that single-layer and few-layer sheets are the principal components; it does not mean that every sheet is strictly monolayer. Layer-number and thickness distributions should be evaluated using AFM, TEM, or other relevant characterization.

03What is the difference between Mo₂TiC and Mo₂Ti₂C₃?

Their elemental ratios and carbon-layer compositions differ, so their sheet structures, electronic states, and experimental performance may also differ. Selection should be based on the research objective, product form, and batch-specific technical data.

04Can MXene powder be dispersed directly in water?

A small-scale dispersion test is recommended first. Dispersion depends on surface terminations, oxidation state, concentration, temperature, and ultrasonication conditions. Pre-wet the powder thoroughly and then use stirring or low-power ultrasonication to disperse it gradually.

05How should MXene materials be stored?

Store sealed, protected from light, and with minimal exposure to air and moisture. Low-temperature or inert-atmosphere storage may be used for oxidation-sensitive experiments. Use opened material promptly and avoid repeated prolonged exposure.

Chemical Formula / Model	Product Form	0.1 g	0.5 g	1 g	5 g	10 g
Mo₂TiC	Multilayer Powder	$59	$196	$327	$1,428	$1,840
Mo₂Ti₂C₃		$59	$196	$327	$1,428	$1,840
Nb₄C₃		$504	$1,680	$2,800	$12,236	$18,400
V₄C₃		$504	$1,680	$2,800	$12,236	$18,400