Research institute launches tender for superconducting quantum computer
A research institute seeks a fully integrated superconducting quantum computer, signalling growing demand for quantum hardware in research and education.
A research institute seeks a fully integrated superconducting quantum computer, signalling growing demand for quantum hardware in research and education.
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An institute has gone to market for a fully integrated superconducting quantum computer with at least five qubits, to be used for both research and education. The move places quantum hardware alongside more established high-performance and AI computing projects now appearing in public research procurement.
On 9th June 2026, Institut »Jožef Stefan« published a contract notice for the acquisition and installation of a fully integrated superconducting quantum computer. The Quantum Computer Procurement covers the full package: the superconducting quantum hardware, the control electronics required to operate it, and comprehensive software.
The institute specifies that the machine must provide at least five qubits. While compact, a system at this scale is well suited to research on quantum algorithms, device characterisation and control, and to introducing students to hands-on work with real quantum hardware. Importantly, the notice stresses that the purchase is for both research and educational use, signalling that the machine is expected to serve a broad internal user base.
Responsibility for installation sits with the supplier, not just delivery. By combining hardware, control electronics and software in a single procurement, Institut »Jožef Stefan« is seeking to reduce integration risk and avoid the need to stitch together components from multiple vendors. The aim appears to be a turnkey platform that can be brought into service quickly within the institute’s existing facilities.
The superconducting quantum computer tender lands in a period of intense activity around advanced computing infrastructure. Across research institutes and computing centres, recent notices point to a landscape in which quantum, high-performance and AI systems are being procured side by side.
In February 2026, CSC - IT Center for Science Ltd launched its LUMI-IQ Quantum Computing Platform procurement. That project centres on an on-premises gate-based quantum computing system, with subsequent hardware and software upgrades planned to enhance performance and add new features, backed by a consortium of partners. Like the Institut »Jožef Stefan« notice, it treats quantum hardware as a strategic platform to be developed over time.
Another route to quantum capabilities appears in the German Aerospace Center’s framework approach. In March 2026, Deutsches Zentrum für Luft- und Raumfahrt e.V. (DLR) published a contract notice for a Framework Agreement for Quantum Computing, seeking computing time on external superconducting quantum computers. Where DLR looks to external providers for access, Institut »Jožef Stefan« is opting for an in-house machine.
Control systems are emerging as an important layer in their own right. In February 2026, UK Research & Innovation published a notice titled Control Systems for Quantum Computing, in which the National Quantum Computing Centre seeks a superconducting qubit control system to support research in quantum error correction and scaling. The new tender at Institut »Jožef Stefan« bundles that control layer with the hardware itself, underscoring how tightly the two are linked in practice.
Not every organisation is buying physical quantum processors. In January 2026, the Dirección General de la Fundación Computación y Tecnologías Avanzadas de Extremadura issued a Quantum Emulator Supply and Services tender to provide a quantum emulator and associated deployment services for the Supercomputing Center of Extremadura. Around the same time, the Fundación Pública Gallega Centro Tecnológico de Supercomputación de Galicia sought Infrastructure for Quantum Technologies, including cosmic ray detection systems and laser equipment for an analogue quantum simulator funded by the European Union.
Classical high-performance computing is evolving in parallel. In December 2025, Narodowe Centrum Badań Jądrowych advertised an HPC Cluster Expansion Project covering delivery and installation of CPU and GPGPU servers, technical infrastructure, integration with existing systems, training and warranty support. In March 2026, the European High-Performance Computing Joint Undertaking went to market for an AI-ready EuroHPC system through its AI Supercomputer Acquisition and Setup tender, seeking a contractor with proven experience and solutions that excel in performance, usability, versatility and energy efficiency.
Other institutions are also reinforcing their high-performance capabilities. In May 2026, Lietuvos energetikos institutas (PV) launched a procurement simply titled High Performance Computing Cluster. In March 2026, a research institute issued an HPC Research Infrastructure Procurement for advanced servers, storage and networking components guaranteed for operation for at least five years under the MW – ATLAS Project. Taken together with the new superconducting quantum computer tender, these notices suggest that quantum systems are beginning to be planned alongside, rather than apart from, mainstream computing infrastructure.
Institut »Jožef Stefan« has been explicit that the superconducting quantum computer is intended for research and educational use. That dual purpose shapes how the procurement is framed: the machine must be usable by researchers developing new experiments as well as by students and early-career scientists who are learning the tools of the field.
Other recent procurements show a similar emphasis on complete environments rather than standalone devices. In January 2026, Uniwersytet Opolski launched an NMR Spectrometer and Data System Procurement that combines the purchase, delivery, installation and configuration of a new 500MHz NMR spectrometer, an upgrade to an existing 400MHz system, a shared data archiving system, and the necessary training and support. In April 2026, Uniwersytet Medyczny w Białymstoku issued a Computer Laboratory System Purchase that bundles computer sets with server infrastructure for laboratory work.
In this context, the requirement for comprehensive software alongside the superconducting hardware and control electronics is notable. It suggests that Institut »Jožef Stefan« wants users to engage with the system through a coherent software stack, rather than relying on ad hoc tools or third-party platforms. For researchers, that can mean a more stable environment for running experiments; for students, it can mean a clearer path into programming and operating the machine.
The tender sets a high bar for suppliers. Bidders must be able to deliver a working superconducting quantum computer, provide the electronics that drive the qubits, and supply software that allows the system to be controlled and used for research and teaching. They must also install the system on site, taking responsibility for ensuring that all components operate together as intended.
A similar pattern is visible across recent computing and quantum technology procurements. The HPC cluster expansion at Narodowe Centrum Badań Jądrowych combines delivery and installation with integration into existing systems, training and warranty support. The AI supercomputer tender from the European High-Performance Computing Joint Undertaking wraps acquisition, delivery, installation and both hardware and software maintenance into a single contract, while demanding strong performance and efficiency characteristics.
In April 2026, a university launched a Server Systems Delivery for UNITe notice covering customised high-performance computing and AI model training servers, with delivery, installation, configuration and warranty service all included. Across these examples, buyers are looking for long-term partners able to support full systems through their operational life, not just hardware vendors.
The Institut »Jožef Stefan« procurement fits squarely into that trend. Suppliers able to demonstrate credible superconducting technology, robust control electronics and a usable software environment will see this as a valuable reference project in the research market, particularly given the prominence of superconducting approaches in other recent notices.
The new tender adds another model to the ways public bodies are accessing quantum computing: alongside on-site platforms such as LUMI-IQ, external access frameworks like DLR’s, and emulator-based approaches such as the Supercomputing Center of Extremadura’s project. Its outcome will help show whether compact, fully integrated superconducting systems are becoming standard items on research infrastructure shopping lists.
The notice itself does not spell out any roadmap for future expansion, but other buyers are already planning for growth. The LUMI-IQ quantum computing platform is explicitly designed around subsequent hardware and software upgrades, while several HPC procurements, such as the MW – ATLAS Project infrastructure, specify multi-year operation and support. How Institut »Jožef Stefan« ultimately integrates, expands and uses its superconducting quantum computer alongside conventional high-performance and AI systems will be an important development to follow as quantum procurement continues to mature.
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