Molybdenum Indium Carbide MAX Phase Powder

Molybdenum Indium Carbide MAX Phase Powder

Molybdenum indium carbide (Mo₂InC) is another member of the MAX phase family, characterized by its unique combination of metallic and ceramic properties. This material is used in a variety of advanced applications due to its high melting point, mechanical strength, and thermal and electrical conductivity.

Application: High-temperature components and coatings.

Role: Mo₂InC is valued for its high melting point and stability at elevated temperatures. It is used in environments where materials are exposed to extreme heat and mechanical stress. The powder can be used to create coatings or structural components that can withstand high-temperature conditions, such as in aerospace or industrial furnace applications.

Wear-Resistant Coatings

Application: Protective coatings for machinery and tools.

Role: Due to its hardness and resistance to wear is suitable for protective coatings on cutting tools, machine parts, and other components subject to high abrasion. The powder is used to develop coatings that enhance the durability and performance of these tools.

Electrical Contacts and Conductive Components

Application: Electrical contacts, conductive coatings, and electrodes.

Role: Mo₂InC electrical conductivity makes it useful in applications requiring efficient electrical contacts and conductive components. The powder can be used to produce materials that facilitate electrical connections while withstanding high temperatures and corrosive environments.

Thermal Barrier Coatings

Application: Thermal barrier coatings for turbines and engines.

Role: Thermal stability and insulating properties make it suitable for thermal barrier coatings that protect underlying materials from heat damage. These coatings are used in engines, turbines, and other high-temperature equipment to improve performance and lifespan.

Catalysis

Application: Catalysts and catalyst supports for chemical reactions.

Role: Mo₂InC can be employed as a catalyst or a support material in various catalytic processes. Its stability and unique properties can enhance the efficiency and longevity of catalytic reactions, particularly in high-temperature environments.