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D-Wave Secures Year 2 Microelectronics Commons Funding for Scalable Superconducting Qubit Fabrication

Quantum Computing Report
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D-Wave and its subsidiary Quantum Circuits secured $5.4M in Year 2 federal funding for the SQFab project, part of a $25.53M NORDTECH hub allocation under the U.S. CHIPS Act to advance domestic quantum semiconductor production. The project targets scalable superconducting qubit fabrication by refining thin-film deposition techniques and demonstrating qubit viability on 300mm silicon wafers, addressing key bottlenecks in gate-model QPU production. Year 2 focuses on transitioning lab-based nanofabrication to industrial processes, including developing a standardized Superconducting Quantum Process Design Kit (SQPDK) to enable automated testing and error-corrected qubit chips. A 20+ member consortium—including IBM, Princeton, AFRL, and SEEQC—links academic research with commercial manufacturing, aligning with NORDTECH’s broader quantum and photonics initiatives under the Microelectronics Commons program. Total NORDTECH funding now exceeds $55M, supporting dual-use quantum technologies for defense and commercial applications while strengthening U.S. supply chains in advanced semiconductor prototyping.
D-Wave Secures Year 2 Microelectronics Commons Funding for Scalable Superconducting Qubit Fabrication

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D-Wave Secures Year 2 Microelectronics Commons Funding for Scalable Superconducting Qubit Fabrication D-Wave Quantum Inc. (NYSE: QBTS), alongside its specialized subsidiary Quantum Circuits, LLC (QCI), has been awarded its second year of federal research allocation for the Improved Materials for Superconducting Qubits with Scalable Fabrication (SQFab) project. Orchestrated by the Northeast Regional Defense Technology Hub (NORDTECH), the initiative is one of four regional microelectronics programs selected by the U.S. Department of War (DOW) for continued execution. The SQFab project is slated to receive $5,400,000 out of a broader $25.53 million hub-wide Year 2 funding cycle. This brings total cumulative investment across NORDTECH’s quantum and commercial leap-ahead technology tranches to $55.43 million, directly supporting the U.S. CHIPS and Science Act mandate to accelerate domestic semiconductor prototyping pipelines. Technical Architecture & Specifications / Operational Implementation The technical framework of the SQFab project addresses the core physical and materials bottlenecks preventing the production scaling of gate-model superconducting quantum processing units (QPUs). During its first year of operation, the collaborative engineering team utilized the specialized cleanroom facilities at the New York Center for Research, Economic Advancement, Technology, Engineering, and Science (NY Creates) NanoTech Complex to establish a baseline infrastructure for qubit nanofabrication. Key initial milestones included optimizing superconducting thin-film deposition techniques to minimize interfacial dielectric losses and demonstrating the technical feasibility of fabricating superconducting qubits on standard 300mm silicon wafers. Moving into Year 2, the SQFab operational roadmap focuses on translating these laboratory-grade nanofabrication parameters into highly repeatable industrial manufacturing processes (lab-to-fab). This effort is supported by the ongoing codevelopment of a standardized superconducting quantum Process Design Kit (SQPDK), which establishes foundational circuit layout rules, interconnect topologies, and packaging architectures. By automating end-of-line testing protocols, the platform enables the production of custom qubit chips that feature enhanced coherence properties and low-crosstalk wiring layers necessary to demonstrate scalable quantum error correction (QEC). Strategic Positioning & Ecosystem Integration The project architecture relies on a structured public-private consortium model designed to integrate theoretical academic research with commercial manufacturing capabilities. Led by NY Creates alongside NORDTECH’s core founding governance committee—which includes the University at Albany College of Nanotechnology, Science, and Engineering (CNSE), Cornell University, Rensselaer Polytechnic Institute (RPI), and IBM—the SQFab engineering group encompasses more than 20 cross-functional organizations. Active team participants include researchers from Princeton University, Syracuse University, New York University (NYU), commercial hardware developers D-Wave and SEEQC, and the Air Force Research Lab – Information Directorate (AFRL). This integrated consortium is engineered to link directly with other complementary NORDTECH initiatives managed under the U.S. Microelectronics Commons (MEC) program. These include the AIM Photonics-led Quantum Ultra-broadband Photonic Integrated Circuits and Systems (QUPICS) platform, which is building automated in-cleanroom optoelectronic testers on a 300mm scale, and the Rochester Institute of Technology (RIT) Heterogeneous Quantum Networking project. By deploying unified fabrication technologies across separate qubit and photonics nodes, the network ensures that domestic supply chains can transition advanced, dual-use quantum components out of early-stage R&D into scalable production environments overseen by the Naval Surface Warfare Center Crane Division and the National Security Technology Accelerator (NSTXL). You can review the official D-Wave investor announcement detailing the Year 2 project selection here. For the complete financial breakdown of the awards and a list of active consortium partners across all four microelectronics programs, read the official NORDTECH press release here and visit the primary governance hub here. May 26, 2026 Mohamed Abdel-Kareem2026-05-26T17:14:37-07:00 Leave A Comment Cancel replyComment Type in the text displayed above Δ This site uses Akismet to reduce spam. Learn how your comment data is processed.

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aerospace-defense
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Source: Quantum Computing Report