Gallium Indium Nitride Nanocrystals

VALUE PROPOSITION

Gallium Nitride (GaN) nanoparticles exhibit superior electrical conductivity, high electron mobility, and a wide bandgap, making them ideal for enhancing the performance of LEDs, high power electronics, and photovoltaic cells. Their unique characteristics also enable the development of highly sensitive sensors, flexible electronics, and advanced lasers for telecommunications and medical treatments. GaN nanoparticles' biocompatibility and optical properties can be leveraged in medical coatings and photodetectors, contributing to improved healthcare solutions. By harnessing the potential of GaN nanoparticles, industries can drive innovation and progress in multiple sectors.

DESCRIPTION OF TECHNOLOGY

Gallium Nitride (GaN) nanoparticles represent a cutting-edge technology that leverages the exceptional electrical, optical, and thermal properties of this semiconductor material. With their high electron mobility, wide bandgap, and superior thermal conductivity, GaN nanoparticles are applicable to various sectors, including electronics, telecommunications, energy, and healthcare. Their application in LEDs, power electronics, photovoltaic cells, and sensors leads to more efficient, compact, and high-performance devices.

BENEFITS

• Enhanced Device Performance: The use of GaN nanoparticles can lead to improved performance in light emitting diodes, high power electronics, and ultraviolet sensors due to their unique properties such as high electron mobility and wide bandgap.
• Cost Efficiency: The development of low-cost methods for fabricating GaN nanoparticles can significantly reduce the overall cost of manufacturing devices that utilize these materials.
• Elimination of Defects: By restricting crystal growth to very small domains, defects can be limited and/or passivated, thereby improving the quality of the resulting GaN nanocrystals and the devices they are used in.
• Novel Device Manifestations: The use of GaN nanoparticles opens up possibilities for creating novel devices such as stretchable and flexible architectures, which can be beneficial in various applications.
• Wide Range of Applications: The nanoparticles can be incorporated into a variety of devices including diodes, circuits, sensors, rectifiers, photocouplers, photocatalysts, catalysts, photovoltaic cells, photodetectors, photoconductors, light emitting diodes (LEDs), lasers, memories, transistors, coatings, and medical coatings, demonstrating their broad applicability.
• Enhanced Device Stability: The use of GaN nanoparticles can potentially lead to more stable devices due to their high thermal conductivity and resistance to defects, which can improve the longevity and reliability of the devices.
• Scalability: The proposed method for fabricating GaN nanoparticles is scalable, making it feasible for large-scale production of these materials for various applications.

APPLICATIONS

• Light Emitting Diodes (LEDs
• High Power Electronics
• Photovoltaic Cells
• Sensors
• Ultraviolet (UV) Sensors
• Flexible Electronics
• Lasers
• Photodetectors

IP Status

US Patent 12,258,505

LICENSING RIGHTS AVAILABLE

All Licensing rights available

Inventors: Richard Lunt, Rebecca Anthony, Alexander Ho and Rajib Mandal

Tech ID: TEC2020-0039

For more information about this technology,

Contact Jon Debling, Ph.D. at deblingj@msu.edu or +1-517-884-1653