NEWS RELEASES

Scientists have discovered how to create circuits that are so small they’re invisible to the naked eye using a process that is both precise and economical for manufacturing. 

The University of Pennsylvania's Bo Zhen and postdoctoral researcher Li He developed a system for guiding light through tiny crystals in ways that allow it to navigate undeterred by bumps and defects. Their work could lead to sturdier lasers, faster data links, and light-based chips that don’t get tripped up by imperfections.

Researchers from Brown University’s School of Engineering have discovered new details about how destructive cracks form in flexible electronic devices — and how to prevent them.

But a recent discovery by a multi-university collaboration of researchers, led by Drexel University researcher Yury Gogotsi, PhD, and Drexel alumnus Babak Anasori, PhD, who is now an associate professor at Purdue University, that sheds light on the thermodynamics undergirding the materials’ unique structure and behavior, could be the key to supercharging the development of two-dimensaional materials with artificial intelligence technology. The discovery was recently reported in the journal Science.

A new class of 2D materials known as MXenes holds the key to next-generation applications, such as consumer electronics and medical devices. Now, collaborative research led by Zahra Fakhraai and Aleksandra Vojvodic of the University of Pennsylvania offers fundamental insights into the chemical and geometric mechanisms underlying the synthesis of these materials, a finding that could lead to cleaner, quicker energy conversion and storage for these devices.

In collaboration with other Bioenergy Research Centers, CABBI researchers are developing industrially feasible techniques for second-generation biofuel production from oilcane, an oil-rich variety of sugarcane, to help meet our growing societal demand for fuels.

Rice computer scientists have developed algorithms that account for quantum noise that is not just random, but malicious interference from an adversary.

Quantum researchers at Purdue are advancing an approach that could improve the resolution of nuclear magnetic resonance (NMR) spectroscopy to the atomic scale and may also have applications in developing quantum computing and quantum communications.