High electron mobility transistors (HEMTs) represent a critical evolution in semiconductor technology by harnessing the advantages of wide bandgap materials such as gallium nitride (GaN) to achieve ...
As the universe of applications for power devices grows, designers are finding that no single semiconductor can cover the full range of voltage and current requirements. Instead, combination circuits ...
Find a downloadable version of this story in pdf format at the end of the story. DISCUSSIONS ABOUT GaN (gallium nitride) transistors and diodes have focused upon the potential of the new material to ...
Growth temperature is a critical parameter determining the sheet carrier density of scandium aluminum nitride (ScAlN)-based heterostructures, grown using the sputtering technique. Gallium nitride (GaN ...
A research team has fabricated a gallium nitride (GaN) transistor using diamond, which of all natural materials has the highest thermal conductivity on earth, as a substrate, and they succeeded in ...
What are GaN HEMTs and why are they important? How GaN devices can handle kilowatt power conversion. Gallium-nitride (GaN) high electron mobility transistors (HEMTs) are a form of field-effect ...
One month after announcing a ferroelectric semiconductor at the nanoscale thinness required for modern computing components, a team has now demonstrated a reconfigurable transistor using that material ...
Imec claims a new benchmark for mobile RF transistor performance. The approach, based on a gallium nitride (GaN) metal-oxide semiconductor high-electron-mobility transistor (MOSHEMT) on silicon (Si), ...
Amplitech Group, Inc. (NASDAQ:AMPG) shares are trading higher on Wednesday after the company announced the development and deployment of its proprietary low-noise cryogenic High Electron Mobility ...
The wish list of device properties that designers of power management systems would like to have is lengthy, but no single material is yet sufficient for the full range of power control applications.
High electron mobility transistors (HEMTs) have emerged as pivotal devices in the field of electronic sensing owing to their intrinsic ability to support a high-mobility two‐dimensional electron gas.