Ti2VAlC2 MAX Phase Powder

Ti2VAlC2 MAX Phase Powder Data Sheet

Purity:	≥98%
Size :	200~500 mesh or customized

Ti2VAlC2 MAX Phase Powder Description

Ti2VAlC2 MAX Phase Powder is a layered ternary carbide material that combines the electrical conductivity and machinability of metals with the thermal stability and corrosion resistance of ceramics. With its nanolaminated crystal structure, Ti2VAlC2 demonstrates excellent damage tolerance, thermal shock resistance, and oxidation stability, making it suitable for use in harsh environments. Its unique balance of properties enables applications in advanced structural materials, protective coatings, and electronic substrates. The powder form of Ti2VAlC2 allows for versatile processing routes such as hot pressing, spark plasma sintering, and additive manufacturing, ensuring adaptability for both research and industrial purposes.

Ti2VAlC2 MAX Phase Powder Features

• High thermal stability: Maintains structural integrity under elevated temperatures.
• Electrical conductivity: Provides metallic-like conductivity for electronic and energy applications.
• Oxidation resistance: Withstands harsh environments with reliable performance.
• Damage tolerance: Exhibits resistance to cracking and thermal shock due to the layered structure.
• Processability: Supports advanced fabrication methods, including spark plasma sintering and hot pressing.

Ti2VAlC2 MAX Phase Powder Applications

• High-Temperature Structural Materials: Ti2VAlC2 MAX phase powder maintains stability and strength under extreme heat, making it suitable for high-temperature components in aerospace engines and industrial furnaces.
• Protective Coatings: Due to its oxidation resistance and excellent thermal conductivity, it can be used as a protective coating on metals and alloys to extend service life in harsh environments.
• Electrical and Thermal Conductive Parts: Its layered crystal structure allows good electrical and thermal conductivity, supporting use in electrical contact materials and thermal management systems.
• Machinable Ceramics: Ti2VAlC2 MAX phase exhibits both ceramic hardness and metallic machinability, which makes it practical for precision parts requiring both durability and easy processing.
• Nuclear and Energy Applications: The material’s radiation tolerance and chemical stability enable potential applications in nuclear reactors and energy conversion systems.