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QVLS-iLabs Secures €15M ($17.4M USD) Second Phase Funding for German Quantum Transfer - Quantum Computing Report

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Germany’s BMFTR approved €15M ($17.4M) in second-phase funding for QVLS-iLabs, a quantum-focused “Future Cluster,” supporting trapped-ion quantum computing and metrology industrialization over three years. The cluster, part of Germany’s Clusters4Future initiative, bridges academia and industry with a roadmap for integrating quantum components into high-performance computing (HPC) systems. First-phase achievements include QUDORA Technologies’ trapped-ion model with Near-Field Quantum Control (NFQC) for high coherence, a 350m² Braunschweig lab for startups, and quantum sensors for battery manufacturing. Led by Prof. Christian Ospelkaus, the 25-partner consortium is managed by QVLS Innovation GmbH, accelerating technology transfer and facility operations under the broader Quantum Valley Lower Saxony initiative. The focus on “on-premise” quantum-classical hybrids aims to secure German sovereignty in quantum hardware, giving local businesses a competitive edge in precision metrology and scalable computation.
QVLS-iLabs Secures €15M ($17.4M USD) Second Phase Funding for German Quantum Transfer - Quantum Computing Report

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QVLS-iLabs Secures €15M ($17.4M USD) Second Phase Funding for German Quantum Transfer The Federal Ministry for Research, Technology and Space Travel (BMFTR) has approved €15 million ($17.4 million USD) in second-phase funding for the QVLS-iLabs “Future Cluster.” Spanning the next three years, this investment supports the Hannover–Braunschweig region’s efforts to transition trapped-ion quantum computing and quantum metrology from academic research into industrial applications. QVLS-iLabs is one of the few selected clusters in the German government’s Clusters4Future initiative with an exclusive focus on quantum technologies. The cluster’s technical roadmap centers on trapped-ion quantum computing and robust quantum components designed for seamless integration with existing High-Performance Computing (HPC) environments. Key developments from the first phase include: Hardware Integration: The development of QUDORA Technologies’ newest trapped-ion model, which utilizes proprietary Near-Field Quantum Control (NFQC) to achieve high coherence times and precise qubit manipulation. Deep-Tech Facilities: A 350-square-meter laboratory in Braunschweig’s Rolleiwerke serves as an incubator for startups and a site for industrial-grade system building.

Industrial Use Cases: Successful pilot projects include quantum sensors optimized for battery manufacturing and open-source software now used by global research groups. Led by Prof. Dr. Christian Ospelkaus (PTB and Leibniz Universität Hannover), the cluster brings together 25 partners across research, industry, and startups. The transition to the second phase is managed by the newly formed QVLS Innovation GmbH, which oversees professional technology transfer and facility management. This cluster is a core component of the broader Quantum Valley Lower Saxony (QVLS) initiative, aiming to establish German technological sovereignty in quantum hardware. By focusing on “on-premise” quantum solutions, the cluster addresses the industrial demand for secure, local quantum-classical hybrid systems. The move from theoretical research to market-ready systems is intended to provide German medium-sized businesses and startups with a competitive edge in the emerging quantum economy, specifically in high-precision metrology and scalable computation. For more information on the QVLS-iLabs roadmap and partner network, consult the official QUDORA announcement here and the cluster website at qvls.de. March 7, 2026 Mohamed Abdel-Kareem2026-03-07T16:18:13-08:00 Leave A Comment Cancel replyComment Δ This site uses Akismet to reduce spam. Learn how your comment data is processed.

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Source: Google News – Quantum Computing