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QED-C and NIST Finalize Research to Compact and Optimize Quantum Control Electronics

Quantum Computing Report
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⚡ Quantum Brief
A $1.4M NIST-funded research program led by QED-C concluded in February 2026, addressing quantum control electronics bottlenecks identified in its 2022 roadmap. The collaboration aimed to miniaturize and optimize hardware for industrial-scale quantum computing deployment. Amphenol RF reduced room-temperature readout package weight and signal loss, while Maybell Quantum and XMA developed high-density cabling to shrink cryogenic infrastructure and boost channel capacity. Rigetti Computing created nanoscale superconducting structures for direct on-chip temperature measurement, enabling real-time thermal diagnostics without disrupting manufacturing flows. The program’s core goal was relocating electronics closer to quantum processors and integrating components to cut costs, footprint, and thermal impact—key hurdles for commercialization. Results strengthen the U.S. QIST supply chain, with QED-C (managed by SRI) continuing to bridge lab prototypes and commercial systems through industry-led collaborations.
QED-C and NIST Finalize Research to Compact and Optimize Quantum Control Electronics

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QED-C and NIST Finalize Research to Compact and Optimize Quantum Control Electronics The Quantum Economic Development Consortium (QED-C) has announced the completion of a NIST-funded research program focused on miniaturizing and improving the efficiency of control and readout electronics for quantum hardware. The initiative, supported by $1.4 million in government matching funds awarded in 2022, addresses critical bottlenecks identified in the QED-C’s “Control and Readout Electronics for Quantum Systems” roadmap. Participating member companies—Amphenol RF, Maybell Quantum Industries, Rigetti Computing, and XMA—developed hardware solutions aimed at reducing the physical footprint and thermal load of classical electronics that drive quantum processors. Technical results from the collaboration include advancements in both room-temperature and cryogenic infrastructure. Amphenol RF optimized room-temperature readout packages to reduce weight and signal loss, while Maybell Quantum Industries and XMA focused on high-density cabling and interconnects to increase channel capacity and shrink the size of cryogenic infrastructure. To address thermal management, Rigetti Computing developed nanoscale superconducting structures that allow for direct on-chip temperature measurement, enabling real-time diagnosis of heating issues that can degrade qubit performance without complicating existing manufacturing flows. The program’s core objectives were to locate electronics closer to the quantum processor and tighter integrate passive and active components to support industrial-scale deployment. By solving constraints related to cost, footprint, and thermal impact, these research outcomes strengthen the domestic supply chain for Quantum Information Science and Technology (QIST). QED-C, managed by SRI, continues to serve as a central hub for industry-led collaborations designed to bridge the gap between laboratory prototypes and robust commercial quantum systems. Consult the official press release for the research results here. February 26, 2026 Mohamed Abdel-Kareem2026-02-26T15:27:37-08:00 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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superconducting-qubits
quantum-optimization
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rigetti
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Source: Quantum Computing Report