Gallium Phosphide (GaP) CAS 12063-98-8: Properties, Applications, and Industrial Significance

Explore the fundamental properties and diverse technological applications of Gallium Phosphide (GaP), a key compound semiconductor driving innovation in optics, electronics, and quantum technologies. Discover its unique material advantages.

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Advantages Provided by Gallium Phosphide

High Refractive Index and Optical Properties

Gallium Phosphide (GaP) possesses a high refractive index and exhibits wide optical transparency from visible to infrared wavelengths, crucial for efficient light confinement and manipulation in advanced optical devices, enabling breakthroughs in nanophotonics applications.

Unique Electronic and Nonlinear Optical Properties

The indirect band gap and significant nonlinear optical properties of GaP make it a versatile material for developing sophisticated semiconductor devices and driving innovation in quantum technologies, supporting advanced semiconductor manufacturing.

Compatibility and Integration

With a crystal structure closely matched to silicon, GaP facilitates seamless integration into existing silicon photonic platforms, enhancing its utility in telecommunications and advanced semiconductor device manufacturing.

Key Applications

Semiconductor Materials & LEDs

Gallium Phosphide serves as a fundamental semiconductor material, particularly vital for the fabrication of LEDs and various electronic components, playing a critical role in the advancement of optoelectronics.

Nanophotonics and Optical Devices

Its unique optical properties, including a high refractive index, make GaP an ideal material for cutting-edge nanophotonics, enabling the creation of advanced optical devices for high-performance applications.

Quantum Technologies

The precise electronic characteristics of GaP position it as a key material in the development of quantum computing and quantum communication systems, pushing the boundaries of scientific innovation.

Integrated Photonics

Gallium Phosphide is crucial for developing integrated photonic circuits, offering low optical loss and enabling high-speed data transmission, which is essential for modern telecommunications and data centers.