>
Former White House Advisor: "Trump to Release $150 Trillion Endowment"
The Mayo Clinic just tried to pull a fast one on the Trump administration...
'Cyborg 1.0': World's First Robocop Debuts With Facial Recognition And 360° Camera Visio
Dr. Aseem Malhotra Joins Alex Jones Live In-Studio! Top Medical Advisor To HHS Sec. RFK Jr. Gives...
Scientists reach pivotal breakthrough in quest for limitless energy:
Kawasaki CORLEO Walks Like a Robot, Rides Like a Bike!
World's Smallest Pacemaker is Made for Newborns, Activated by Light, and Requires No Surgery
Barrel-rotor flying car prototype begins flight testing
Coin-sized nuclear 3V battery with 50-year lifespan enters mass production
BREAKTHROUGH Testing Soon for Starship's Point-to-Point Flights: The Future of Transportation
Molten salt test loop to advance next-gen nuclear reactors
Quantum Teleportation Achieved Over Internet For The First Time
Watch the Jetson Personal Air Vehicle take flight, then order your own
Microneedles extract harmful cells, deliver drugs into chronic wounds
The semiconductor is promising for next-generation "power electronics," or devices needed to control the flow of electrical energy in circuits. Such a technology could help to reduce global energy use and greenhouse gas emissions by replacing less efficient and bulky power electronics switches now in use.
The transistor, called a gallium oxide on insulator field effect transistor, or GOOI, is especially promising because it possesses an "ultra-wide bandgap," a trait needed for switches in high-voltage applications.
The schematic at left shows the design for an experimental transistor made of a semiconductor called beta gallium oxide, which could bring new ultra-efficient switches for applications such as the power grid, military ships and aircraft. At right is an atomic force microscope image of the semiconductor. (Purdue University image/Peide Ye
ompared to other semiconductors thought to be promising for the transistors, devices made from beta gallium oxide have a higher "breakdown voltage," or the voltage at which the device fails, said Peide Ye, Purdue University's Richard J. and Mary Jo Schwartz Professor of Electrical and Computer Engineering.
Findings are detailed in a research paper published this month in IEEE Electron Device Letters. Graduate student Hong Zhou performed much of the research.