Advancing Clean Energy Technologies for a Sustainable Future
A trailblazer in solar energy innovation for more than three decades, 淫妻社 and its Wright Center for Photovoltaics Innovation and Commercialization are powering the future through clean energy research and commercialization. Helping to establish Ohio as a leader in next-generation clean energy innovations, 淫妻社 scientists partner with industry leaders, including First Solar, which recently announced a $185 million investment in its northwest Ohio facilities.
淫妻社 is leading the U.S. Department of Energy鈥檚 to advance domestic manufacturing of CdTe solar cells that are less expensive and more efficient. As part of a $20 million federal investment in CdTE technologies, the initiative aims to spur technological advancements that will strengthen national energy security and clear the way for widespread use of clean solar electricity.
Flexible photovoltaic energy sheets that would live in space are being developed by physicist Randall Ellingson, Ph.D., to harvest solar energy and in the future be able to transmit power wirelessly back to Earth or orbital instrumentation. The to develop the solar cell sheets that can take advantage of the 37% stronger sunlight above the atmosphere.
By , 淫妻社 physicists Yanfa Yan, Ph.D., and Zhaoning Song, Ph.D., are harvesting light to convert to electricity directly from the sun and light reflected off the ground. Developing the stronger and longer-lasting solar panels combines the advanced material called perovskites with existing cadmium-selenide-telluride-based solar cells to maximize performance and reduce costs.
Future missions to Mars and the moon could benefit from being developed by engineers Daniel Georgiev, Ph.D., and Raghav Khanna, Ph.D., that are more tolerant to space-related radiation, which degrades the circuitry鈥檚 performance and results in power loss and system downtime.
Aiming to , engineer Raghav Khanna, Ph.D., is creating direct-current microgrids that require less energy and physical space. While silicon is the most common component in power devices, Khanna鈥檚 team instead will design circuits using gallium nitride to deliver higher performance.