Niobium Nitride(NbN) Micronpowder

Niobium Nitride(NbN) Micronpowder Main Feature

NbN has a high melting point, typically around 2,507°C (4,545°F), making it suitable for high-temperature applications. It is a type II superconductor with a relatively high superconducting transition temperature (Tc) for a non-copper oxide material. The Tc can vary depending on the stoichiometry and structural quality, but it is typically in the range of 14-16 K (-259.15°C to -257.15°C). This property makes it valuable for quantum computing, superconducting magnets, and other applications where superconductivity at relatively high temperatures is advantageous.NbN micronpowder has a high hardness and mechanical strength, which makes it useful as a coating material for cutting tools and in other applications requiring wear resistance.It exhibits good chemical stability and corrosion resistance, which is beneficial for applications in harsh environments.While it is a superconductor below its Tc, at temperatures above this, it behaves as a conductor with reasonable electrical and thermal conductivity.

Niobium Nitride(NbN) Micronpowder Applications

• Superconducting Devices: Its superconducting property is exploited in various devices, including quantum computing components, SQUIDs (Superconducting Quantum Interference Devices), and superconducting magnets used in magnetic resonance imaging (MRI) systems and particle accelerators.

• Coatings for Cutting Tools: The hardness and chemical stability of NbN make it an excellent coating material for cutting tools, enhancing their wear resistance and lifespan even under high temperatures and in corrosive environments.

• Electronics and Photonics: NbN thin films are used in superconducting electronics, such as single-photon detectors for quantum communication and computing, and in ultrafast photodetectors for optical communication systems.

• Wear-resistant Coatings: Beyond cutting tools, NbN coatings are applied to various components that require high wear resistance, including bearings, dies, and other parts in machinery and equipment subjected to extreme conditions.

• Microelectronics: NbN is used in microelectronics fabrication, particularly in components that benefit from its superconducting properties, offering a pathway to more efficient and compact devices.

• Energy Technologies: Its superconducting property is being explored for use in superconducting cables and power transmission lines, potentially leading to more efficient electrical grids with reduced energy losses.