QCNEWS
A five year, $375M federal R&D deal puts GlobalFoundries' Malta, NY fab on contract as a domestic source of the cryogenic control silicon that runs every major quantum hardware platform.
A federal R&D contract finalized on September 8 has turned a commercial 22-nanometer chip line in Malta, New York into the U.S. government's contracted source of the cryogenic control electronics that every quantum hardware platform depends on. The Department of Commerce and GlobalFoundries signed a definitive five-year, $375 million agreement under the CHIPS and Science Act to scale the company's Quantum Technology Solutions (QTS) unit from research prototypes into volume domestic production at the Malta 300mm fab.
That control and readout silicon sits next to the qubit at temperatures near absolute zero, converting fragile quantum signals into classical instructions a room-temperature computer can read. QTS builds that layer on GlobalFoundries' 22FDX process, a 22nm fully depleted silicon-on-insulator (FD-SOI) node with embedded magnetoresistive memory (eMRAM) on the same die. The chip carries memory and logic, runs at millikelvin temperatures, and is positioned as a foundational substrate across silicon-spin, trapped-ion, photonic, topological, and superconducting quantum processors.
The unit, launched earlier this year, is led by Nicholas Sergeant as Vice President and General Manager. The $375 million finalization adds execution money to a unit that already had a separate $300 million CHIPS letter of intent signed earlier for silicon photonics R&D, a multi-program strategy that links the cryogenic CMOS work to a different, light-based hardware stack under the same policy umbrella.
Money arrives on a milestone schedule, not as a lump sum. The five-year structure ties each tranche to technical deliverables: wafer process qualification, packaging integration, and prototype-to-production handoffs for at least one QTS platform. That makes the contract a procurement vehicle, not a subsidy. The wire distribution groups the award with other CHIPS R&D funding for superconducting and trapped-ion hardware at additional recipients.
The bet is that the U.S. quantum hardware industry has a foundry gap. National labs and university spinouts have built impressive prototype processors, but turning them into productized hardware requires a commercial 300mm line that can run cryogenic CMOS at yield, with eMRAM and packaging in the same fab. GlobalFoundries is one of the few U.S.-headquartered foundries with the right process already qualified, and Malta already runs 22FDX at scale. The agreement pays the company to specialize that line for quantum customers rather than build a parallel fab from scratch.
The caveat is the one the program cannot solve with money: the control silicon is mature relative to the qubit. No volume of high-yield cryogenic CMOS compresses the timeline on error-corrected logical qubits, which is the actual gating step for useful quantum computing. The agreement moves a real bottleneck (domestic production of the readout and control layer), but the harder bottleneck above it stays where it was.
The earliest milestone is a 22FDX cryo-CMOS process-qualification deliverable. If QTS ships a qualified process design kit with eMRAM and at least one multi-modality packaging reference inside the first two tranches, the foundry gap claim holds. If the unit stays inside the prototype-to-volume handoff for the full five years, the bottleneck just relocated from the qubit lab to the fab loading dock.