Titanium Aluminum Carbide (Ti3AlC2): A Material Bridging Metals and Ceramics

Discover the unique properties and diverse applications of Titanium Aluminum Carbide (Ti3AlC2), a cutting-edge MAX phase material offering unparalleled performance in demanding environments.

Get a Quote & Sample

Key Advantages of Utilizing Ti3AlC2

Exceptional Thermal Stability

Ti3AlC2 exhibits excellent high-temperature mechanical properties, making it a reliable choice for advanced applications requiring resistance to extreme heat, a key aspect of high-temperature structural material applications.

Dual Metallic and Ceramic Nature

This material offers the best of both worlds: metallic conductivity and ceramic hardness. This unique combination is vital for creating effective conductive materials for electronics and components used in harsh environments.

Versatile Application Potential

From advanced coatings to energy storage, Ti3AlC2's properties unlock possibilities across various sectors, including its role as MXene precursor materials, driving innovation in material science.

Key Applications of Titanium Aluminum Carbide

High-Temperature Applications

Ti3AlC2 is invaluable for high-temperature structural components and coatings, demonstrating superior performance where traditional materials fail. This aligns with its use in demanding high-temperature ceramic applications.

Wear-Resistant Coatings

Its hardness and resistance to abrasion make it ideal for wear-resistant coatings, extending the lifespan of tools and machinery, a critical benefit for wear-resistant coatings Ti3AlC2.

Energy Storage and Catalysis

The material's conductivity and stability make it suitable for advanced energy storage systems and as a component in electrochemical catalysis, underscoring its importance in energy storage MAX phase and electrochemical catalysis materials.

MXene Precursors

Ti3AlC2 serves as a crucial precursor for the synthesis of MXenes, a class of 2D materials with remarkable electronic and mechanical properties, contributing to its role as MXene precursor materials.