>
Watch: Convention Crowd Symbolically Anoints JD Vance for 2028 with Chant
Appeals Court Won't Allow Trump Admin To Implement New Rules For Mail-In Voting
The Cooldown Is Officially LOCKED In...
9/11: The Predatory Perps & Their Perfidious Plan
Freezable titanium plate keeps your cooler chilled way longer than ice packs
Review: Affordable thermal device is made for discovering life outdoors
AI Whistleblower Tells Tucker How AI Could Kill All Humans by 2040
You Hate Flock? Well There's More...
Will Spiking Diesel Prices Drive Autonomous Trucking?
Chinese Concept Video Imagines the Future of Warfare
OPTIMUS CONFIRMED: 15,000 Bots This Year -- Tesla to $3,000
What is Going On With Robotaxi and Cybercab? Here Are All the Answers
Floating data center would provide water and electricity to 32,000 homes
OpenAI Cuts Off Elon's Cursor, Humanity's First Star Probe, and Trump's Nuclear Mars Shi
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.