Electrification
Driving the switch to electrification of mobility that works harder for people while shrinking its carbon footprint
Powering the propulsion and inner workings of automobiles and aircraft with electricity requires many types of technology—chargers, batteries, electric motors, and power converters to name a few. It also requires lighter, stronger new materials to help vehicles perform more efficiently. And it means preparing to connect many more electric vehicles to the nation’s transmission grid.
Our research spans departments and disciplines to cover the array of challenges and opportunities related to power.
UT’s Approach
Tailpipe emission pollutants directly affect human health, and the transportation sector is one of the largest contributors to US greenhouse gas emissions. There is immense potential to create positive change through power-related research.
We envision a large-scale shift from combustion engines to zero-emission electric motors, while the nation’s grid simultaneously incorporates more electricity from renewable sources like solar and wind. Our work aids this shift by advancing the performance of electric propulsion and battery storage—and by making electric transportation more attractive to more users.
For example, we’re advancing new technologies like wireless power transfer to make charging more efficient and convenient. By streamlining the design and function of power electronics, we’re helping vehicles perform better (think quicker acceleration, for example) and run longer between charges—using smaller batteries. Our work is helping solve common concerns about EVs, while resulting in less electricity consumption over time, and our innovations help reduce manufacturing and ownership costs down the line.
Future generations of connected automated vehicles will need even more power to run sensors, cameras, wireless communications, and data computation. Some of our researchers are proactively developing electrical power components that will enable reliable performance. Others are focusing on battery safety and durability or exploring new materials to improve power output in relation to battery size.
We’re also investigating opportunities for EVs to strengthen the grid. Since renewable sources do not produce electricity constantly, EVs (or old EV batteries that need a second life) can feed power stored in their batteries back to the grid when needed. Solutions like these can strengthen the grid’s reliability and resilience while enabling America to increase renewables.
Highlights
Wireless Power Transfer for EV Fast Charging
Wireless power transfer for EVs offers greater convenience, safety, and even vandalism resilience than traditional conductive charging. UT and Volkswagen Group of America are exploring how to apply WPT technology by using a wide-bandgap silicon-carbide power inverter.
EV Charging Technologies
Three UT power electronics faculty members predict future trends for EV chargers based on past and present research projects. The authors believe that EV chargers in the future will be more integrated with other power electronics devices, charge more quickly, and provide more grid services.
Carbon-Free Aircraft Propulsion Means Greener Skies
A five-year collaboration led by UT and Boeing for NASA could have major implications on aircraft design and performance for decades to come. UT faculty developed a first-of-its-kind, high-performing, low-weight power inverter that enables electrified propulsion.
Zhao Lights a Safer Path for Future Transit
In collaboration with Ford, Associate Professor Peng Zhao is investigating thermal runaway in today’s generation of lithium-ion batteries. His research has demonstrated important insights for battery safety evaluations. His lab’s work also has implications for EV battery efficiency.
Learn more about Zhao’s research in collaboration with Ford.
Taking Off: Costinett Helps UT-Led Army Project on Fully Charged Vertical Flight
Fully electric propulsion is still several generations away for aircraft, but UT researchers are already putting electric vertical take-off and landing systems in motion. Our faculty are solving challenges for eVTOL drones with advanced batteries, wireless charging, and power conversion.
Read about this collaboration with the Army.
Our Researchers
-
Associate Professor, Electrical Engineering & Computer Science
Vehicle electrification
-
Associate Professor, Electrical Engineering & Computer Sciences
Power electronics for electric vehicles
-
Professor, Agricultural & Resource Economics
Material research, use of hemp in composites
-
Peebles Professor, IAMM Chair of Excellence, Civil & Environmental Engineering
Carbon fiber reinforced polymeric composites and sandwich structures, environmental degradation, and multi-scale mechanics, multi-axial stress-strain-time behavior of multi-phase and granular materials, non-invasive characterization and residual stress using neutron and x-ray tomography and diffraction, direct numerical simulations and porous media
-
UT–ORNL Governor’s Chair for Advanced Composites Manufacturing
Composites manufacturing, design and product development, recycling and sustainable technologies, hybrids, engineered plastics and high performance materials
-
Professor and Condra Chair of Excellence in Power Electronics and CURENT Technical Director
Power electronics, power systems, motor drives
-
Assistant Professor, Mechanical, Aerospace & Biomedical Engineering
Optimal control; convex optimization; machine learning; guidance, navigation, and control; space systems; aerial vehicles; connected vehicles
-
UT-ORNL Governor’s Chair for Electrical Energy Conversion & Storage
Electrolytes and composite electrodes for fuel cells, fundamentals of energy storage materials and systems, water management in fuel cells