Knowledge
GaN-on-SiC Services for RF, Microwave & Power D...
GaN-on-SiC services for RF, microwave, and power devices, delivering high performance, excellent thermal management, and flexible wafer specifications for R&D and OEM needs.
GaN-on-SiC Services for RF, Microwave & Power D...
GaN-on-SiC services for RF, microwave, and power devices, delivering high performance, excellent thermal management, and flexible wafer specifications for R&D and OEM needs.
4H-SiC for RF, Microwave, and mmWave Electronics
4H-SiC (4H Silicon Carbide) is widely used in RF, microwave, and mmWave electronics for high-power, high-frequency applications requiring excellent thermal performance and reliability.
4H-SiC for RF, Microwave, and mmWave Electronics
4H-SiC (4H Silicon Carbide) is widely used in RF, microwave, and mmWave electronics for high-power, high-frequency applications requiring excellent thermal performance and reliability.
Custom LaBr₃:Ce Single-Crystal Scintillator
Custom LaBr₃:Ce Single-Crystal Scintillators We provide custom-designed LaBr₃:Ce (Lanthanum Bromide, Cerium-doped) single-crystal scintillators tailored to your application requirements. LaBr₃:Ce is a high-performance gamma-ray scintillator known for its high light yield,...
Custom LaBr₃:Ce Single-Crystal Scintillator
Custom LaBr₃:Ce Single-Crystal Scintillators We provide custom-designed LaBr₃:Ce (Lanthanum Bromide, Cerium-doped) single-crystal scintillators tailored to your application requirements. LaBr₃:Ce is a high-performance gamma-ray scintillator known for its high light yield,...
LaBr₃:Ce Scintillator Crystal (Encapsulated) — ...
LaBr₃:Ce (Cerium-doped Lanthanum Bromide) is a premium gamma-ray scintillator known for excellent energy resolution, very high light output, and fast decay time—ideal for gamma spectroscopy where peak separation and counting...
LaBr₃:Ce Scintillator Crystal (Encapsulated) — ...
LaBr₃:Ce (Cerium-doped Lanthanum Bromide) is a premium gamma-ray scintillator known for excellent energy resolution, very high light output, and fast decay time—ideal for gamma spectroscopy where peak separation and counting...
Epitaxial Wafer Growth on 4H-SiC Substrates
This article explains how epitaxial wafers are grown on 4H-SiC substrates for power and RF semiconductor devices, covering growth methods, defect control, doping profiles, and practical considerations for device-grade epitaxy.
Epitaxial Wafer Growth on 4H-SiC Substrates
This article explains how epitaxial wafers are grown on 4H-SiC substrates for power and RF semiconductor devices, covering growth methods, defect control, doping profiles, and practical considerations for device-grade epitaxy.
4H-SiC Substrate & Wafer — Wide Bandgap Power S...
4H-SiC substrates and wafers are the foundation of modern wide bandgap power semiconductors, enabling high-voltage, high-temperature, and high-efficiency devices. This article explains 4H-SiC crystal growth, wafer specifications, doping and orientation...
4H-SiC Substrate & Wafer — Wide Bandgap Power S...
4H-SiC substrates and wafers are the foundation of modern wide bandgap power semiconductors, enabling high-voltage, high-temperature, and high-efficiency devices. This article explains 4H-SiC crystal growth, wafer specifications, doping and orientation...