A team of researchers is developing a minimally invasive technology for recording and modulating neurons that would allow for unprecedented large-scale neural stimulation and recording with high spatial resolution.
A team of materials scientists have, for the first time, visualized the 3D atomic and electron density structure of the most complex perovskite crystal structure system decoded to date.
Topological control of electrons means future electronic roadways are now possible.
ZIF glasses, a new family of glass, could combine the transparency of silicate glass with the nonbrittle quality of metallic glass, according to researchers at Penn State and Cambridge University, UK.
Researchers devise encryption key approach that cannot be cloned, reverse-engineered.
The rapid growth of research on 2D materials is fueled by the hope of developing better performing sensors, more economical solar energy, and higher performing and more energy efficient electronics.
Researchers at Penn State have developed an AR coating that improves on existing coatings to the extent that it can make transparent plastics, such as Plexiglas, virtually invisible.
Dramatically longer-lasting, faster-charging and safer lithium metal batteries may be possible, according to Penn State research.
Polyester and other synthetic fibers like nylon are still around and are a major contributor to the microplastics load in the environment, according to a Penn State materials scientist, who suggests switching to biosynthetic fibers to solve this problem.
A new type of light-emitting diode lightbulb could one day light homes and reduce power bills, according to Penn State researchers who suggest that LEDs made with firefly-mimicking structures could improve efficiency.