SQC Appoints W.H. Teh as Chief Manufacturing Officer

thequantuminsider.com Nov 11, 2026

SQC Appoints W.H. Teh as Chief Manufacturing Officer

Curated by Shubham · TechCapsules · Nov 11, 2026

AI-summarised brief · reviewed before publication

Silicon Quantum Computing (SQC) has named W.H. Teh Chief Manufacturing Officer, effective October 2026, to lead the scale‑up of its atomic‑precision semiconductor manufacturing. Teh, with over 20 years of experience at NVIDIA, Excelitas, SanDisk and Intel, will oversee multi‑site operations, supply‑chain integration, and automation to support SQC’s roadmap to universal, fault‑tolerant quantum systems. The appointment follows new CFO and Chief Legal Officer hires, strengthening SQC’s executive team as it expands its vertically integrated quantum‑device manufacturing.

💡 Why It Matters

· By adding a seasoned manufacturing leader, SQC positions itself to accelerate production of its 0.13‑nanometer atomic‑placement chips, a critical step toward commercial quantum processors.

Read full article on thequantuminsider.com

IBM Plans 1,040-Qubit Quantum System with Next-Generation Nighthawk Processors

IBM announced its next‑generation Quantum Nighthawk r3 processor, capable of executing 10,000 quantum operations on 520 programmable qubits and featuring 2,034 physical qubits. The company plans to pair two r3 units into a 1,040‑qubit system by 2027, expanding its Quantum Platform to integrate quantum processors with classical high‑performance computing for larger workloads, error‑correction research, and automated workflows. The r3 builds on the r2’s 100,000 samples‑per‑second speed, aiming to meet industry demands for higher computational quality and speed.

💡 By scaling to over 1,000 qubits, IBM positions itself to tackle more complex, real‑world problems that current quantum systems cannot efficiently solve, potentially accelerating breakthroughs in materials science, energy optimization, and beyond.

thequantuminsider.com · Nov 11

Conductor and Elevate Quantum Partner on Training and Quantum Component Testing

Conductor and Elevate Quantum announced a partnership to enhance quantum workforce training and component testing at the new Roadrunner Quantum Lab in Albuquerque, New Mexico. Conductor’s AI-driven platform will automate calibration, coordinate experiments, and log results for Elevate Quantum’s superconducting quantum chip and dilution refrigerator. The collaboration offers trainees hands‑on experience with quantum hardware and provides companies a testbed to benchmark components under real operating conditions. The initiative strengthens New Mexico’s expanding quantum ecosystem by linking industry, academia, and workforce development.

💡 By integrating automated software with cutting‑edge hardware, the partnership accelerates skill acquisition and reliable component validation, positioning the state as a hub for practical quantum engineering.

thequantuminsider.com · Nov 11

Zhengyuan Quantum Raises Angel Funding For 1,000-Qubit Computer

Zhengyuan Quantum, a 2026‑founded Chinese startup, closed an undisclosed angel funding round to advance a 1,000‑qubit superconducting quantum computer. Investors include Shenzhen Capital Group, Pudong Venture Capital, Dening Capital, Xiangjiang Xincheng, and Shenzen Angel Fund of Funds, with Duowei Capital as adviser. The capital will fund research and testing of three‑dimensional packaging, ultra‑low‑temperature connections, and integrated measurement‑control systems. The company has secured component orders and is in talks with potential customers, though no delivery timeline has been announced.

💡 The funding underscores China’s push to scale quantum hardware beyond current 100‑qubit limits, a critical step toward practical quantum advantage. It also signals growing investor confidence in domestic quantum startups, potentially accelerating the global race for next‑generation computing.

quantumcomputingreport.com · Nov 11

RIKEN and Quantinuum Demonstrate Heterogeneous Multi-QPU Workflows on Fugaku

Researchers from Quantinuum, the University of Tsukuba, and RIKEN’s Center for Computational Science demonstrated a hybrid computing architecture that links the supercomputer Fugaku with two distinct quantum processors: Quantinuum’s Reimei trapped‑ion system and IBM’s Kobe superconducting system. Using an extended Tierkreis workflow engine, the team executed a multi‑modality quantum‑classical algorithm to compute the ground‑state energy of a 16‑site transverse‑field Ising model, achieving an error of 0.61 ± 0.36 J—substantially better than standalone VQE on Kobe (2.47 ± 0.10 J). The demonstration also validated biomolecular excited‑state workflows, automating 80 % of runtime coordination across classical chemistry packages and quantum circuit generation. The work shows that complex quantum chemistry and condensed‑matter calculations can span heterogeneous quantum hardware without direct quantum interconnects, using a classical supercomputer as the central orchestrator.

💡 By integrating multiple quantum platforms through a unified workflow, the study removes the scalability bottleneck of fragmented glue code, enabling more efficient use of diverse quantum strengths. This paves the way for practical, large‑scale quantum‑classical simulations that were previously limited to single‑architecture setups.

thequantuminsider.com · Nov 11

FBH Offers Diamond Processing For Quantum Technologies

FBH has launched a diamond‑processing platform that enables precise nanofabrication for quantum technologies. The service offers surface preparation, ion implantation to create color centers, and nanoscale pillar fabrication, either separately or combined. Using oxygen‑ and chlorine‑based plasma etching, FBH can remove up to 20 µm of material while keeping surface roughness near 0.5 nm rms. The platform aims to integrate diamond nanostructures with photonic circuits, supporting quantum memories, single‑photon sources, and sensing devices.

💡 By delivering reproducible, scalable diamond nanofabrication, FBH removes a critical bottleneck for quantum hardware, accelerating the transition from laboratory prototypes to commercial quantum networks.

quantumcomputingreport.com · Nov 11

Diraq Installs Silicon Spin Quantum Computer in Equinix Commercial Data Center

Diraq has installed an eight‑qubit silicon‑spin quantum computer in an Equinix commercial data center in Sydney, testing the feasibility of running electron‑spin‑in‑silicon processors outside laboratory settings. The system uses standard Si‑MOS lithography, draws under 20 kW, and occupies 172 sq ft. Over the next year, Diraq plans to expand to a 256‑qubit processor in the same refrigeration unit, evaluating modular scaling without new infrastructure. The deployment will benchmark uptime, gate fidelity, and control drift under typical data‑center conditions, aligning with Diraq’s Quantum at Work white paper and DARPA Quantum Benchmarking Initiative.

💡 Demonstrating quantum hardware in a commercial data‑center environment could lower deployment barriers for enterprises, accelerating adoption of quantum‑enhanced applications.