Back to Top
Skip to main content
NETL Logo
Direct air capture, which removes carbon dioxide directly form the atmosphere, will be critical for counterbalancing hard-to-decarbonize sectors.
NETL has initiated a four-year plan to develop a direct air capture (DAC) process that integrates expertise from the Lab’s extensive materials design, computational materials design, computation fluid dynamics, and process system design research portfolios to advance a cutting-edge technology that will remove carbon dioxide (CO2) from the atmosphere.
Members of the Morgantown, West Virginia, Police Department Special Response Team prepare to enter an interior door during a full-scale emergency exercise held at NETL-Morgantown.
A full-scale exercise conducted at NETL’s research campus in Morgantown, West Virginia, tested emergency preparedness and identified areas for improvement to save lives and prevent injuries in the event of an actual workplace violence incident.
Animated diagram depicting the beneficial factors and research thrusts of high-performing CFD computing
With NETL support, through the Lab’s University Training and Research program, researchers at the University of California, Riverside used advanced computing models that harness machine learning to efficiently reduce impingement in boilers — an innovation that can ensure longer and more efficient service life for power plants and even potentially extend the lives of helicopter rotor blades or aircraft engine components.
Funding Opportunity Announcement
WASHINGTON, D.C. — The U.S. Department of Energy’s (DOE) Office of Fossil Energy and Carbon Management (FECM) today announced up to $17.5 million in funding to advance technologies that capture carbon dioxide (CO2) from industrial facilities and power plants and convert those CO2 emissions into valuable products.
NETL’s Patcharin Burke and Richard Dalton, federal project managers on the Hydrogen with Carbon Management team, visited the START Lab facility along with Rich Dennis, the Lab’s Advanced Turbines technology manager, in 2022. (NETL staff, center-right) Photo Credit: Kelby Hochreither
The National Experimental Turbine (NExT) initiative, located at the Pennsylvania State University (Penn State) Steady Thermal Aero Research Turbine (START) Lab and supported by NETL and the U.S. Department of Energy (DOE) for more than a decade, has advanced turbine design to help modernize the nation’s energy infrastructure and lead the way to fewer emissions in the power sector.
Animated map that visualizes energy data and affiliated environmental, community and justice data.
With insights from custom mapping and data science analyses, NETL is helping prioritize energy communities and spotlight opportunities for economic improvement and environmental justice in a changing energy landscape.
Funding Opportunity Announcement
Washington — The U.S. Department of Energy’s Office of Fossil Energy and Carbon Management (FECM) today announced it is making up to $27 million available through President Biden’s Investing in America agenda to support the transport of carbon dioxide (CO2) captured from industrial and power generation facilities, as well as from legacy carbon dioxide emissions captured directly from the atmosphere,  to locations for permanent geologic storage or conversion to useful products.
Animated depiction of an underground carbon storage example.
Zanskar Geothermal and Minerals Inc. (Zanskar), with NETL support, recently concluded a project that developed a deep learning tool for subsurface monitoring that could help ensure safe storage of carbon dioxide (CO2) at geologic sites, which is critical for meeting the nation’s decarbonization goals.
Steelmaking operations at United States Steel Corporation.
NETL and United States Steel Corporation plan to test an advanced membrane technology to capture carbon dioxide (CO2) emissions generated by steelmaking operations at the Company’s Edgar Thomson Plant, located in Braddock, Pennsylvania.
Car being fueled.
Research by NETL and its partners is advancing discoveries to produce graphite — a material whose unique properties make it an essential component for mass-producing battery electric vehicles (BEVs), energy storage systems and other green technologies — from unwanted carbon waste materials.