Imagine if the tiny brains inside your phone didn't need rare, expensive metals from across the world to work. Instead of using a particle's 'spin' to move data, this tech uses the way electrons orbit, like planets around a sun. It lets us build high-speed memory and sensors using common materials like aluminum and copper.
Microelectronics rely on 30 critical raw materials often sourced outside the EU, creating supply chain vulnerabilities and environmental damage. Current high-performance spintronics still depend on scarce heavy metals like Pt, Ir, Ta, and Bi.
The project is developing new heterostructures and devices that use orbital angular momentum (OAM) to process information using abundant metals.
If you are a manufacturer dealing with supply chain bottlenecks for critical raw materials — this project developed orbitronic components that use abundant metals like Cu or Al. This ensures your production is not halted by the scarcity of heavy metals.
If you are a memory producer dealing with high power consumption in spin-based devices — this project developed a way to use orbital angular momentum to create high-density memories. This reduces power needs while removing dependence on materials like Pt and Ir.
If you are a sensor developer dealing with the environmental footprint of heavy metal mining — this project developed orbitronic sensors using low-impact materials. This allows you to market a sustainable, green-certified hardware line.
Based on available project data, specific cost figures are not provided, but the project aims to reduce costs by replacing expensive critical raw materials with abundant metals like Cu and Al.
The project is currently in the design and characterization phase of new heterostructures. Based on available project data, industrial scale-up is a long-term goal following the demonstration of orbital currents in devices.
Based on available project data, there is no specific information regarding licensing terms or patent strategies for the orbitronic technology.
The project runs from 2024-04-01 to 2028-03-31. Market entry would likely follow the successful completion of these research objectives.
The technology aims to replace traditional semiconductor and spin-orbitronic materials with abundant metals, which may simplify the supply chain for existing microelectronics manufacturing.
The consortium is research-heavy but maintains a significant industrial link with 3 industry partners (30% ratio) and 1 SME. With 10 partners across 4 countries (DE, FR, PT, SE), the project balances academic depth from 4 universities and 3 research centers with practical industrial application, led by the CNRS.
Contact CNRS (France) regarding the OBELIX project
Contact us to track the transition of orbitronics from lab to fab.
