Imagine trying to build a giant supercomputer by connecting several smaller ones together, but the cables can't hold the information long enough. This project creates a high-tech 'waiting room' for quantum data, allowing it to be stored and retrieved perfectly. It acts like a bridge that lets different types of quantum processors talk to each other without losing their data.
Current quantum computers are limited to a few hundred qubits, which is insufficient for practical, fault-tolerant use. There is a lack of commercially viable quantum memories to interconnect smaller processors into larger, scalable clusters.
A complete quantum memory link consisting of hardware and control software for synchronizing qubits across separate processing units.
If you are a drug discovery firm dealing with molecular simulations that are too complex for current hardware — this project developed quantum memory links that enable larger, more powerful quantum computers. This allows for the processing of complex problems currently intractable for classical computers.
If you are a quantitative hedge fund dealing with massive industrial optimization and risk modeling — this project developed a turnkey quantum link solution. This enables the scaling of qubits by interconnecting multiple processing units into clusters.
If you are a networking provider dealing with the inability to synchronize quantum states between separate processors — this project developed a full-stack solution combining hardware and control software. This allows for the reliable transmission of quantum states between heterogeneous processors.
Based on available project data, specific pricing or cost details are not provided.
Yes, the project specifically targets the transition from laboratory prototypes to practical systems by interconnecting mid-sized quantum processing units in clusters to multiply qubit counts.
Based on available project data, the specific licensing terms are not mentioned, though the technology is being developed by Welinq SAS.
The solution is designed to interface with a wide range of platforms, including photonic, neutral-atom, ion-based, superconducting, and spin-based processors.
The project period is from 2025-01-01 to 2026-12-31, aiming to drive global market adoption of their turnkey links.
The project is led by a single partner, Welinq SAS, which is a French SME. This 100% industry-led consortium indicates a strong focus on commercialization and market entry rather than academic research, as there are no universities or research institutes involved.
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Contact us to explore integration opportunities with Welinq's quantum memory links.
