ESDRG’s technology transfer efforts strive to bring next generation blade designs to the $17 Bn wind turbine blade industry. These systems need longer blades to capture more energy. But longer blades also create a lot of negative tradeoffs. So, to overcome those challenges, ESDRG and our industry collaborators are developing an active blade that adapts its shape to changing wind conditions which today’s blades can’t do. This technology reduces LCOE 50% by 2030. And this kind of progress is a huge enabling factor in the energy transition.
Prior to my graduate studies, I worked in industry as a professional licensed engineer. From this experience I gained an understanding of industry needs. I have used this understanding to guide my research activities. In doing so, I can transform these ideas into innovation that can be patented and commercialized. My work on adaptive blade technology was recently patented. The technology is of interest to major wind turbine manufacturers. I have established relationships with key individuals in these organizations. I have transferred my technology to a startup company, Atrevida Science, that will finalize the transfer of the technology to the field. Some of the broader impacts of my work in this area are:
- STEM Impact: The goal in designing and delivering this type of curriculum of wind energy concepts was also to spur interest in renewable energy and help develop a STEM workforce to support the energy transition.
- Offshore Wind Impact: This technology could positively impact the potential performance of wind turbines and the competitiveness of the wind industry. The improved performance could significantly reduce the Levelized Cost of Energy (LCOE) and strengthen the reliability of wind energy. In doing so, our technology could promote the proliferation of clean energy and alleviate the use of fossil fuels.
- Green House Gas Emissions (GHGe) Impact: Using the Greenhouse Gas Emission Reduction Potential workbook created by the New York State Pollution Prevention Institute, adaptable blade technology can reduce GHGe impact by 27 MMtCO2 annually for the northeast U.S.
- Community Impact: This disruptive innovation will make an existing industry operate better. Our technology also supports the building out of port infrastructure and the creation of high-paying union jobs. Through projects with the U.S. Air Force AFWERX program, we have worked with students to design and fabricate prototypes and multiple test stands for wind tunnel and tow tank testing. Multiple groups of graduate and undergraduate mechanical and aerospace engineering students learned about blade design, development, and construction.
