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NLR-NRRI Partnership Advances Industry-Scale Innovation and Process Demonstration

Aug. 25, 2026 | By Lindsey McGuirk and Brooke Van Zandt | Contact media relations
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Woman wearing 3D glasses views a large data visualization screen showing mineral ore imagery and processing statistics

Representatives from the University of Minnesota and NRRI tour the 3D Visualization Lab at NLR, one of many research capabilities powered by NLR’s Kestrel supercomputer. Photo by Joe DelNero, National Laboratory of the Rockies

The National Laboratory of the Rockies (NLR) and the University of Minnesota's Natural Resources Research Institute (NRRI) have launched a new initiative to demonstrate, at scale, the technologies that will secure supply chains for critical minerals and materials and power the next generation of U.S. industry and manufacturing.

The Joint Research Alliance for Innovative Materials and Processing for Advanced Critical Technologies (JRA-IMPACT, or IMPACT) is a translational proving ground for industry-scale innovation and process demonstration.

IMPACT is an exciting next chapter in the long standing collaboration between NLR and NRRI to strengthen the nation’s energy and materials leadership, said John Farrell, NLR’s associate laboratory director for Energy Security and Systems Innovation. Together, we’re building on years of successful collaboration to seamlessly support resilient domestic supply chains, regional economic strength, and responsible resource innovation.

NRRI and NLR offer complementary expertise, facilities, and access to key resources, creating an opportunity to bridge natural resources, energy, and advanced materials in ways that no single institution can achieve alone. The alliance’s scope of expertise, capabilities, and assets helps industry advance across technology readiness levels (TRLs) and shorten the transition through the valley of death, the gap where promising discoveries fail to become viable products due to scale-up challenges and real-world deployment complexities.

Together, NLR and NRRI capabilities build momentum to:

  • Lead natural resource innovation
  • Demonstrate advanced technologies with regional engagement to reduce risk to deployment and commercial impact
  • Demonstrate utility of industrial cross-sector coupling
  • Build workforce infrastructure.
Diagram showing an integrated mineral processing platform with connected icons for feedstock, processing, thermal treatment, separation, energy systems, and AI/digital twin technology.

IMPACT combines NRRI's deep expertise in natural-resource-based industries, industry partnerships, ecosystem understanding, and community engagement with NLR’s expertise in energy systems design and optimization, supercomputing capabilities, and material design innovation. Graphic by Besiki Kazaishvili, National Laboratory of the Rockies

NRRI is uniquely positioned within the University of Minnesota as its applied research institute, established to deliver integrated research solutions that advance natural resource stewardship, economic resilience, and industrial innovation, said Rolf Weberg, NRRI’s executive director. Pairing NRRI's modular, adaptive facilities with NLR’s research infrastructure amplifies our collective impact.

Combining Strengths To Build Momentum

IMPACT combines NLR's experimental platforms, high-performance computer modeling, and AI expertise with NRRI’s lab-to-pilot-scale facilities to accelerate discovery, demonstration, and deployment.

With complementary capabilities, NLR and NRRI are able to work together from bench to micro-pilot scales (1 kg–10 kg, or less than 1-ton-per-hour throughput) to industrial-scale rate of 5–10 tons per hour. Experimenting with minerals at the smaller scale is practical for researchers to explore behaviors and interactions up close, find potential flaws, and solve fundamental yield and efficiency challenges. But once a promising processing flowsheet is identified, the private sector needs to know it can be produced in mass quantities. IMPACT is able to bridge TRLs 1 through 9 using natural resources (including real ore, biomass, and tailings) in a U.S. Department of Energy (DOE)-collaborative, demonstration-scale environment.

Worker in safety gear operating a furnace with glowing molten metal at a metallurgical facility

NRRI can perform pilot-scale mineral processing and metallurgy on its Coleraine campus. Photo from NRRI

Directing IMPACT efforts at NLR is Jennifer King, who brings not only research expertise to this leadership role but also a personal appreciation for the impacts that mining and manufacturing technologies can have on people. King’s grandfather worked for a mining company, and her mother was raised on the Iron Range in Northern Minnesota. She still has her grandfather’s white hard hat with green lettering perched above her desk in Minnesota.

This IMPACT work is a bright spot for me, King said. Working with staff across institutions in IMPACT alongside regional partners to have a literal impact is what motivates me every day. King also noted the strategic benefits to the NLR-NRRI alliance, where we can go from a nugget of an idea to scale for commercialization across industrial systems.

Work Is Already Underway

On the heels of the IMPACT launch, work is already underway at NLR. One key area of the partnership is advanced processes for metal recycling and recovery of critical minerals such as lithium, scandium, and copper.

With the U.S. Department of War, one IMPACT project focuses on aluminum alloys in military aircrafts, which often contain 5% lithium or higher by weight. Conventional recycling technologies are unable to recover that lithium, leading to the need for more advanced scrap metal processes.

NLR is also leading DOE’s Industrial Technologies Office (ITO) Tramp Element Removal Innovation (TERI) Center of Excellence, leveraging IMPACT to demonstrate and de-risk tramp element removal technologies. Copper is one of the tramp (i.e., unwanted) metals found in the U.S. scrap metal inventory. It clings easily to other metals and can compromise their integrity, which poses a major challenge when recycling scrap metal into high-quality steel.

Four researchers in lab coats and safety glasses conferring in a laboratory with electronic equipment.

IMPACT leverages plasma capabilities in NLR’s Field Test Laboratory Building to help move critical mineral technologies from discovery to deployment. Photo by Joe DelNero, National Laboratory of the Rockies

The domestic steel industry recycles millions of metric tons per year of steel cans, automobiles, appliances, construction materials, and other steel products. TERI will combine new and existing capabilities to demonstrate and de-risk de-copperization technologies, which are necessary to ensure that the United States can continue to make high-quality steel from its significant scrap resources while recovering critical minerals.

Group photo of approximately 40 researchers and staff posing outdoors at a research facility.

NLR, NRRI, and University of Minnesota representatives join together to celebrate the kickoff of IMPACT. Photo by Joe DelNero, National Laboratory of the Rockies

Learn more about IMPACT and other NLR critical minerals research collaborations.


Last Updated April 28, 2026