Imagine a computer that can solve a puzzle with a million steps without getting confused or losing its place. It uses specially charged atoms trapped in space that can talk to each other almost instantly. This allows the machine to perform massive calculations much faster than current quantum attempts while keeping the information stable for a long time.
Current quantum computers cannot run long enough calculations to be useful for real-world chemistry or optimization. They lose stability too quickly or operate too slowly to reach the necessary computational depth.
A prototype for a scalable quantum computer, including fabricated 1D- and 2D-prerunner ion traps.
If you are a drug discovery firm dealing with the inability to simulate complex molecular interactions — this project developed a quantum prototype that can run algorithms with over one million steps. This allows for the precise simulation of quantum chemistry to accelerate drug development.
If you are an advanced materials manufacturer dealing with the design of new high-performance substances — this project developed a scalable quantum processor. It enables the simulation of physical systems to find more efficient material properties.
If you are an optimization software provider dealing with complex routing or portfolio problems that exceed current computing limits — this project developed a platform with 100 ns gate speeds. This allows for the execution of very deep calculations required for complex optimization.
Based on available project data, there is no information regarding the commercial pricing or development costs of the system.
Yes, the project objective is to realize a fully scalable quantum computer prototype, utilizing industry-compatible hardware developed with partners like Infineon Technologies.
Based on available project data, specific patent or licensing terms are not disclosed, though the consortium includes industrial partners and an SME.
The platform achieves entangling gate speeds on the order of 100 ns, which is critical for deep computational complexity.
The project runs from 2022-10-01 to 2025-09-30, focusing on the prototype phase rather than immediate market deployment.
The consortium is a balanced mix of 7 partners across 4 countries, featuring a 29% industry ratio. It combines the academic depth of 3 universities and 2 research centers with the commercial manufacturing capabilities of Infineon Technologies and the agility of one SME (HQS), ensuring the transition from theoretical physics to industrial-grade hardware.
Contact Stockholm University regarding the BRISQ project coordination.
Contact us to explore licensing opportunities for Rydberg-ion quantum hardware.
