Compound Semiconductors
Powering the Next Tech Frontier
Compound semiconductors are crafted by combining two or more elements (unlike elemental semiconductors like silicon) to unlock unique electrical, optical, and thermal properties. These materials are the backbone of today’s most advanced technologies—from 5G networks and EV power systems to high-speed data transmission and next-gen optics.
Why Compound Semiconductors?
High Electron Mobility & Speed – Delivers rapid switching and high-frequency performance.
Direct Bandgap & Optoelectronic Efficiency – Ideal for LEDs, lasers, and photonic systems.
Thermal & Power Robustness – SiC and GaN excel in high-voltage, high-temperature applications.
Enables Emerging Technologies – Key for 5G/6G, EVs, renewable energy, and quantum computing.
Industries Served
Telecom & 5G / 6G Networks
Electric Vehicles & E-Mobility
Renewable Energy & Smart Grid Infrastructure
Aerospace, Defense & Space Applications
Consumer Electronics & Charging Solutions
Photonics, Quantum & Optical Communications
Industrial IoT, Automation & Sensing
Data Centers & High-Speed Computing
Indium Phosphide (InP)
Applications
Power Electronics – DC-DC converters, EV traction inverters, solar and wind inverters (SiC, GaN)
RF & Communication Systems – 5G base stations, satellite, radar, MMICs (GaN, GaAs, InP)
Optoelectronics – LEDs, laser diodes, LiDAR, photonic sensors (GaN, GaAs, InP)
High-Speed Fiber Optics – Laser transmitters, photodetectors, modulators at telecom wavelengths (InP, GaAs)
Photonics & Quantum Tech – Photonic ICs, LiDAR, quantum devices (InP, GaAs)
Why Choose Compound Semiconductors?
Compound semiconductors deliver what silicon cannot—ultra-fast speeds, efficient light manipulation, and unmatched power resilience. They are the material foundation for transformative tech, securing the future of electrification, connectivity, and energy efficiency. Upgrading to compound semiconductors means staying ahead in the innovation curve. Click below to learn more about compound semiconductors.