EV Group Helps Accelerate Qubit Scaling for Quantum Computing Through Advanced Packaging Expertise

thequantuminsider.com Nov 9, 2026

EV Group Helps Accelerate Qubit Scaling for Quantum Computing Through Advanced Packaging Expertise

Curated by Shubham · TechCapsules · Nov 9, 2026

AI-summarised brief · reviewed before publication

EV Group (EVG) announced it will support quantum chip developers in scaling quantum computing systems by applying its advanced packaging, heterogeneous integration, and photonics expertise. The company’s process technologies—fusion and hybrid bonding, oxide‑free bonding, digital and nanoimprint lithography, and thin‑wafer processing—enable high‑density interconnections and precision manufacturing across diverse qubit architectures. EVG is collaborating with Xanadu, Silicon Austria Labs, and the CHAMP‑ION pilot line to industrialize ion‑trap chips, and will showcase its solutions at SEMICON Europa in Munich.

💡 Why It Matters

· By providing the manufacturing tools needed to integrate more qubits without degrading performance, EVG helps bridge the gap between laboratory prototypes and commercially viable quantum processors.

Capsules Quantum Computing

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Horizon Quantum Integrates OQC’s 32-Qubit Processor with Triple Alpha

Horizon Quantum and OQC have merged OQC’s 32‑qubit superconducting processor, Toshiko, with Horizon Quantum’s Triple Alpha development environment, granting developers pulse‑level hardware control. The integration lets users characterize qubits, measure coherence times (T1 and T2), and calibrate quantum gates directly within the same platform used for application development. By exposing the hardware control layer through a web‑based API, the collaboration aims to streamline calibration workflows and enhance quantum program fidelity on superconducting QPUs.

💡 The ability to perform pulse‑level operations inside a unified development environment reduces the need for separate tools, accelerating the deployment of precise calibration routines that are critical for reliable quantum computing.

thequantuminsider.com · Nov 9

hzero Emerges From Stealth to Coordinate Quantum and Classical Computing

hzero, a Munich‑based startup, has left stealth mode with a software platform that orchestrates workloads across quantum processors and classical high‑performance computing (HPC) systems. The layer sits atop existing scheduling tools and application stacks, ingesting job requirements, real‑time resource states and operator‑defined priorities to dynamically allocate quantum and classical resources. Co‑founders Bruno G. Taketani (CEO) and Martin Rüfenacht (CTO) lead a team experienced in quantum hardware, control, HPC and systems software, and have previously built cross‑vendor quantum interfaces. Backed by LEA Ventures, FORWARD.one, Leo Capital and EU support, hzero is courting quantum hardware makers for integration partnerships and HPC centers for pilot deployments, promising seamless addition of quantum nodes to current infrastructures.

💡 By bridging quantum and classical workloads, hzero removes a key barrier to practical quantum adoption, enabling existing HPC facilities to leverage quantum speed‑ups without overhauling their software ecosystems.

thequantuminsider.com · Nov 9

IBM Patent Application Targets More Efficient Sharing of Quantum Computers

IBM has filed a patent for a quantum‑job scheduler that groups compatible circuits from multiple users to run concurrently on a single processor while reusing stored noise models for error mitigation. The software evaluates qubit availability, connection topology, execution time and user preferences, then matches jobs whose combined operations align with existing noise characterizations, reducing the need for fresh calibration measurements. The system can also prioritize jobs that can exploit still‑valid noise data, updating models as hardware noise drifts. The filing illustrates a scenario on a 127‑qubit chip where two programs using 52 and 30 qubits, respectively, are run together with four idle qubits separating them to limit crosstalk. IBM proposes billing rebates for users who permit sharing, though no performance metrics are disclosed.

💡 By turning idle qubits into productive capacity, the approach could dramatically increase the usable throughput of costly quantum hardware, accelerating research cycles and lowering access barriers.

thequantuminsider.com · Nov 9

IBM Deploys First Quantum Computer in Illinois with Quantum System Two

IBM, the University of Chicago, the State of Illinois and the Illinois Quantum and Microelectronics Park unveiled an IBM Quantum System Two in Chicago, the company’s first quantum computer deployment in the state. The system, powered by IBM’s Nighthawk chip, will initially operate at the university’s Hyde Park Labs before relocating to the Illinois Quantum and Microelectronics Park, where it will anchor the National Quantum Algorithm Center. Researchers will use the machine to develop quantum algorithms for drug discovery, power‑grid optimisation and high‑energy physics, collaborating with universities, national laboratories and industry partners. IBM CEO Arvind Krishna highlighted the system’s ability to deliver scientifically useful results, while Governor JB Pritzker emphasized the expected job and economic benefits for Illinois and strengthen the ecosystem.

💡 By anchoring the National Quantum Algorithm Center, Illinois positions itself as a national hub for quantum research and commercial development, accelerating the transition from theory to market‑ready solutions.

thequantuminsider.com · Nov 9

Busan Science Museum Opens Quantum Education Exhibition with KRISS

The National Science Museum in Busan has teamed with the Korea Research Institute of Standards and Science (KRISS) to launch “Quantum Magic School,” a public education programme that runs through Nov. 22. The exhibition guides visitors through a castle‑like entrance, a “quantum tunneling” portal and an AR photo zone before immersing them in interactive displays on superposition, entanglement and uncertainty, including a Schrödinger’s‑cat model and a plasma ball. KRISS contributes a 50‑qubit superconducting quantum‑computer model and an operational quantum processing unit, giving a tangible view of hardware slated for future high‑tech sectors. The programme also offers a one‑day “Science Field Trip” to KRISS’s Daejeon lab for elementary students and a “Quantum Magic × Talk Concert” on Nov. 21, where magician Lee Jun‑hyung performs tricks that illustrate quantum concepts, followed by a lecture from KRISS’s quantum technology director.

💡 By pairing immersive magic with real quantum hardware, the exhibit turns abstract science into a hands‑on experience, sparking public curiosity about a technology poised to reshape computing and measurement standards.

quantumcomputingreport.com · Nov 8

IBM Deploys Quantum System Two at Hyde Park Labs to Anchor Illinois…

IBM, the University of Chicago, the State of Illinois and the Illinois Quantum and Microelectronics Park unveiled an on‑premises IBM Quantum System Two at Hyde Park Labs, marking the first physical quantum computer installed in Illinois. The machine, built on IBM’s Quantum Nighthawk processor, will initially serve the National Quantum Algorithm Center before moving to the IQMP campus once construction finishes. By shifting Chicago researchers from remote cloud access to local hardware, the system offers low‑latency execution for deep, error‑mitigated circuits and algorithm‑scaling benchmarks. It underpins NQAC Grand Challenges projects such as Deloitte‑AbbVie‑IBM‑Northwestern drug‑discovery modeling and power‑grid optimization with EPRI and UIUC, and supports fundamental physics work with Fermilab. Simultaneously, IBM announced the FutureNow Chicago center at IQMP, a partnership with City Colleges of Chicago to train workers for 750 regional jobs in quantum computing, cybersecurity and data science.

💡 Local, high‑performance quantum hardware accelerates collaborative research that was previously limited by cloud latency, unlocking faster progress in drug discovery and energy‑grid optimization.