Vulcan Elements ARPA-E Contract Targets Next-Generation Magnets

Vulcan Elements ARPA-E Contract will support a three-year research effort aimed at developing next-generation magnetic materials that could deliver higher performance while reducing dependence on rare earth inputs. The project will be led by Dr. Piotr Kulik, co-founder and chief technology officer of Vulcan Elements, following a competitive award from the US Department of Energy’s Advanced Research Projects Agency–Energy (ARPA-E).

Announced on October 15, 2026, the initiative brings together researchers from Vulcan Elements, the University of Central Florida (UCF) and Oak Ridge National Laboratory (ORNL). The team will investigate new magnetic materials through computational modelling, materials discovery, synthesis and experimental validation.

The research addresses a strategic challenge for industries that depend on high-performance magnets, including electric vehicles, robotics, power generation, defence systems and advanced manufacturing. Many existing high-performance permanent magnets rely on rare earth elements, creating supply-chain vulnerabilities for manufacturers.

Vulcan Elements ARPA-E Contract Explores Alternatives to Rare Earth Magnets

The project will investigate whether new material compositions can achieve exceptional magnetic performance with a lower requirement for rare earth inputs. Rather than relying exclusively on improving established magnet chemistries, the researchers intend to explore alternative materials and structures that could push beyond current performance limits.

Rare earth magnets are essential components in many electric motors and generators. Their ability to produce strong magnetic fields in compact designs makes them particularly valuable in applications where weight, efficiency and power density matter.

However, the supply chains for rare earth materials and magnet production are concentrated in a limited number of markets. Developing alternatives could give manufacturers greater flexibility in sourcing materials and help reduce exposure to supply disruptions.

The Vulcan-led project is therefore focused on both materials performance and the possibility of diversifying the inputs required for future magnet production. Any potential reduction in rare earth dependence will need to be demonstrated through research and testing rather than assumed from the project’s objectives.

Vulcan Elements ARPA-E Contract Uses Advanced Computing for Materials Discovery

Computational modelling will be a central part of the research programme. The team plans to use Oak Ridge National Laboratory’s Frontier exascale supercomputer to accelerate the discovery and design of promising magnetic materials.

High-performance computing allows researchers to examine material compositions and properties computationally before investing in the time and resources required for laboratory synthesis. This can help narrow the search for candidates with desirable magnetic characteristics.

The project will combine computational predictions with synthesis and validation, allowing researchers to assess whether promising theoretical candidates can be produced and deliver the expected performance.

The approach reflects a broader shift in materials science towards combining advanced computing with experimental research. Instead of relying exclusively on trial-and-error laboratory work, scientists can use computational tools to prioritise candidates and investigate a wider range of possible material structures.

The project’s success will depend on how accurately the models predict real-world behaviour and whether promising candidates can be manufactured consistently.

Vulcan Elements ARPA-E Contract Brings Industry and Academia Together

Dr. Kulik will lead the research effort in collaboration with scientists at UCF and ORNL. His role at Vulcan Elements combines company-level technology development with academic research, creating a link between fundamental materials science and potential industrial applications.

The partnership brings together expertise in scientific discovery, computational research and magnet manufacturing. This combination is important because a material that performs well in a laboratory may still face challenges when production moves towards commercial scale.

Vulcan intends to contribute its experience in materials science, advanced manufacturing and production scale-up to explore pathways for commercialising technologies developed through the project.

The company has positioned the work as part of a longer-term effort to develop new manufacturing processes and strengthen domestic magnet production. However, the project remains a research programme, and any resulting commercial product will depend on the outcomes of the work and subsequent development.

Vulcan Elements ARPA-E Contract Could Support Energy and Industrial Technologies

More capable magnetic materials could have applications across sectors that rely on electric motors, generators and other systems that convert electricity into motion.

In energy infrastructure, stronger or more efficient magnets could contribute to improvements in motors and power-generation equipment. In transportation, they could support compact and lightweight electric-drive systems. Robotics, industrial automation and defence technologies could also benefit from materials that deliver high magnetic performance with fewer supply constraints.

The research could have implications beyond the magnet itself. If new materials can reduce dependence on scarce inputs while maintaining suitable performance, manufacturers may gain more options for designing products and managing procurement risks.

These outcomes remain potential applications rather than confirmed results. The team must first identify viable materials, demonstrate their properties and determine whether they can be manufactured at a commercially practical cost.

Vulcan Elements ARPA-E Contract Builds on Domestic Magnet Manufacturing Plans

The research complements Vulcan Elements’ wider strategy of developing a more resilient magnet supply chain in the United States. The company is building a manufacturing facility in Benson, North Carolina, intended to expand domestic production of neodymium-iron-boron permanent magnets.

The planned facility is designed for an annual production capacity of 10,000 metric tonnes, according to the company. Vulcan says its magnets are intended for applications including drones, semiconductors, robotics, electric vehicles and AI infrastructure.

The ARPA-E project differs from the company’s existing manufacturing activities because it focuses on discovering potentially new magnetic materials rather than simply scaling production of established magnet technologies.

If the research identifies commercially viable alternatives, Vulcan could explore how they might complement its manufacturing capabilities. That would require further engineering, process development and validation before any new material could enter large-scale production.

The award highlights the connection between fundamental research and industrial strategy: advances in material discovery may eventually influence how critical components are designed, sourced and manufactured.

Vulcan Elements ARPA-E Contract Marks an Early Step in Magnet Innovation

The three-year research programme is intended to investigate magnetic materials that could exceed existing performance limits while reducing reliance on rare earth inputs. It brings together advanced computing, academic research and industrial manufacturing expertise in pursuit of that goal.

The project does not yet establish that a commercially viable replacement for existing rare earth magnets has been developed. Its significance lies in funding a structured effort to explore alternatives and assess their potential.

For manufacturers and industries that depend on high-performance magnets, progress in this area could eventually offer new options for supply-chain resilience and product design. For now, the key milestones will be the identification of promising materials, experimental validation and the development of practical routes towards manufacturing.

The Vulcan Elements ARPA-E Contract places the company within a wider research effort to advance magnet technology, with commercialisation dependent on what the science ultimately delivers.