Ti2CTx MXene Phase Powder

Ti2CTx MXene Phase Powder Data Sheet

Purity:	≥98%
Size :	2–20 µm, 200–1000 nm or customized

Ti2CTx MXene Phase Powder Description

Ti2CTx MXene Phase Powder is a member of the MXene family, derived from layered ternary carbides through selective etching. It exhibits metallic conductivity, excellent hydrophilicity, and a large interlayer spacing, which allows efficient ion transport and functionalization. This material has garnered attention for its applications in supercapacitors, lithium-ion batteries, electromagnetic interference (EMI) shielding, and catalytic systems, owing to its unique two-dimensional structure and versatile properties.

Ti2CTx MXene Phase Powder Specifications

Parameter	Multilayer Ti2CTx Powder	Single-Layer Ti2CTx Powder
Size	2–20(µm)	200–1000(nm)
Number of Layers	Multilayer	≤5 Layers
Conductivity (S/cm)	10–100	2000 ± 500
Surface Groups	-OH, =O, -F, -Cl
Etching Process	LiF/HCl Etching
Appearance	Green powdered material
Structure	Two-dimensional layered material
Production Method	Lithium fluoride/hydrochloric acid system reaction
Conductivity	High conductivity with multiple vanadium oxidation states, demonstrating excellent energy storage performance
Storage	Stored in vacuum drying or inert environments

Ti2CTx MXene Phase Powder Features

• Fine powder form with uniform particle distribution for consistent processing.
• Two-dimensional crystal structure enabling efficient ion and electron transport.
• High electrical conductivity suitable for advanced electronic and energy devices.
• A chemically active surface that can be functionalized for different applications.
• Stable performance under controlled conditions, supporting long-term material reliability.

Ti2CTx MXene Phase Powder Applications

• Energy Storage Devices: Ti2CTx MXene is widely used in lithium-ion and sodium-ion batteries as an anode material due to its high electrical conductivity and layered structure, enabling fast ion transport and improved capacity retention.
• Supercapacitors: With excellent surface area and charge mobility, Ti2CTx MXene enhances the performance of supercapacitors by providing rapid charge–discharge cycles and high energy density.
• Electromagnetic Interference (EMI) Shielding: Ti2CTx MXene’s strong electrical conductivity and 2D layered structure make it a promising material for high-performance EMI shielding in electronic devices.
• Catalysis: The unique surface terminations (Tx) of Ti2CTx MXene make it effective for electrocatalytic and photocatalytic reactions, such as hydrogen evolution and CO2 reduction.
• Sensors: Ti2CTx MXene is utilized in gas and biosensors due to its rapid electronic response, high sensitivity, and strong surface reactivity toward target molecules.