Oregon State chemists have discovered an inexpensive and rapid process for turning cellulose into the components of supercapacitors. These high-power energy devices have a wide range of industrial applications, from electronics to automobiles.

Oregon State chemists have discovered an inexpensive and rapid process for turning cellulose into the components of supercapacitors. These high-power energy devices have a wide range of industrial applications, from electronics to automobiles.
What if the Wright Brothers had tested their flying machine on a computer before launching it on a North Carolina beach? They could have drastically shortened the time from idea to working prototype.
In the late 1980s, computer engineer Cherri Pancake made a discovery that startled her: Despite the millions of dollars invested in computer hardware and the explosive growth in software, no published research focused on how people actually use these devices.
A promising new form of nuclear power that evolved in part from research more than a decade ago at Oregon State University has received a significant boost: up to $226 million in funding to NuScale Power from the U.S. Department of Energy.
In most neighborhoods, talk turns to family, weather or sports. But when the neighbors include a global high-tech company and the state’s largest research university, the conversation bends to technology.
For an undergraduate, Josh Tibbitts faced an unusual problem last winter: where to find a source of high-pressure natural gas for a new research lab. We’re not talking about double or triple the pressure that produces the blue flame in your furnace or a kitchen stove — typically less than one-quarter of a pound per square inch (PSI). Tibbitts needed to find a supply at 2,000 PSI.