It is frequently utilized as a reinforcing agent in aluminum-matrix composites for the fabrication of high-performance, lightweight structural components, such as aircraft engine blades and turbofan blades.
Furthermore, it is employed in the preparation of specialized ceramic materials—such as high-temperature-resistant coatings and wear-resistant components—as well as serving as a heat-dissipation substrate or electrode material in electronic devices.
In the aerospace sector, aluminum diboride ceramics are also used to manufacture components required to withstand extreme temperatures and harsh environments, such as rocket engine nozzles and missile nose cones.
Leveraging its excellent thermal and electrical conductivity, it can be utilized to fabricate heat-dissipation substrates, insulating layers, or electrode materials for semiconductor devices, thereby aiding in the resolution of thermal management issues in electronic equipment.
In the field of new energy, aluminum diboride and its composites have also demonstrated potential as electrode materials or additives for use in energy storage devices, such as lithium-ion batteries.