Semiconductor Science and Technology · 2021 · 118 citations · 52 references
Aluminium NitrideWide-bandgap SemiconductorElectrical EngineeringAluminum NitrideEngineeringGan HemtsNanoelectronicsApplied PhysicsAluminum Gallium NitrideGan Power DeviceNext Generation ElectronicsCategoryiii-v SemiconductorGan ElectronicsOptoelectronics
Abstract Gallium nitride high-electron-mobility transistors (GaN HEMTs) are at a point of rapid growth in defense (radar, SATCOM) and commercial (5G and beyond) industries. This growth also comes at a point at which the standard GaN heterostructures remain unoptimized for maximum performance. For this reason, we propose the shift to the aluminum nitride (AlN) platform. AlN allows for smarter, highly-scaled heterostructure design that will improve the output power and thermal management of III-nitride amplifiers. Beyond improvements over the incumbent amplifier technology, AlN will allow for a level of integration previously unachievable with GaN electronics. State-of-the-art high-current p-channel FETs, mature filter technology, and advanced waveguides, all monolithically integrated with an AlN/GaN/AlN HEMT, is made possible with AlN. It is on this new AlN platform that nitride electronics may maximize their full high-power, high-speed potential for mm-wave communication and high-power logic applications.
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Ed Swartz, R. O. Pohl · Reviews of Modern Physics · 1989 · 2.8K citations
Engineering, Acoustic Metamaterial, Thermal Conductivity +20
30-W/mm GaN HEMTs by Field Plate Optimization
Yifeng Wu, A. Saxler, M. Moore et al. · IEEE Electron Device Letters · 2004 · 1.1K citations
Wide-bandgap Semiconductor, Electrical Engineering, Engineering +13