There are many forms of energy around us: light, heat, vibrations, wind, electromagnetic fields, fluid flow, waves, organic waste, etc. At large scale, many of these energy sources already play a significant role in powering our society and are projected to become dominant contributors by 2040. On the smaller scale, exciting scientific and engineering challenges must be overcome to harness these energy sources.
As we begin the New Year we’ll take a moment to celebrate some recent accomplishments and look towards the future: winners of the 2017 Rustum and Della Roy Awards will be announced, new faculty will be highlighted, and I’ll provide an update on some MRI strategic initiatives.
"(Re)Focusing on the human dimension: How immersive technologies and human centered design can advance materials research"
(Re)Focusing on the human dimension: How immersive technologies and human centered design can advance materials research"
By Ashley WennersHerron
Finely created interfaces offer new design strategies beyond conventional materials for applications in infrared optics, sensing and more, researchers say
By Gail McCormick
A new fusion of materials, each with special electrical properties, has all the components required for a unique type of superconductivity that could provide the basis for more robust quantum computing. The new combination of materials, created by a team led by researchers at Penn State, could also provide a platform to explore physical behaviors similar to those of mysterious, theoretical particles known as chiral Majoranas, which could be another promising component for quantum computing.
Four projects were recently awarded Penn State Commercialization GAP funding. The GAP Fund, formerly known as the Fund for Innovation, aims to accelerate the development of promising research across the University by closing the funding gaps between proof-of-concept research and readiness for commercialization.
Polarized light waves spin clockwise or counterclockwise as they travel, with one direction behaving differently than the other as it interacts with molecules. This directionality, called chirality or handedness, could provide a way to identify and sort specific molecules for use in biomedicine applications, but researchers have had limited control over the direction of the waves — until now.
