Watch and meet researchers working on today’s most cutting-edge scientific challenges, and learn how their work makes a difference for you and future generations.
![]()
http://web.2.c2.audiovideoweb.com/va92web25028/Voices%20of%20Research/UMD_EFRC_GaryRubloff.flv
Gary Rubloff and researchers are working collaboratively through the DOE at the University of Maryland’s EFRC — Nanostructures of Electrical Energy Storage (NEES) — to greatly improve batteries by learning how the materials, lithium, and electrons interact at the nanometer scale (a nanometer is about one ten-thousandth of the diameter of a human hair), and to fabricate and measure these materials in a precise way. Their work could have a giant impact. Lighter weight, more powerful batteries could make long-range electric cars for storing massive amounts of energy from wind farms and solar panel arrays a reality rather than an inspiration.
![]()
http://web.2.c2.audiovideoweb.com/va92web25028/Voices%20of%20Research/Gunnoe_Short Cut.flv
Dr. Brent Gunnoe and his team of researchers at the DOE Center for Catalytic Hydrocarbon Functionalization (CCHF) EFRC at the University of Virginia are pioneering ways to transform methane into new energy sources.
Scientific advances are needed to create new technologies that will provide large-scale access to alternative energy sources. At the core of nearly every large scale alternative resource is the need to selectively rearrange chemical bonds using sophisticated catalysts that can break and form chemical bonds. New catalytic technologies can lead to high impact technologies, but such catalysts require a level of molecular control beyond our current means. CCHF is focused on identifying catalysts that will allow the conversion of methane into liquid fuels. This work has the potential to greatly augment gasoline as a more environmentally friendly fuel.