IQM Quantum Computers will invest over €40 million (C$65 million) to expand its production site in Espoo, Finland. The plan centres on scaling a combined chip fabrication and system assembly line, raising yearly output to about 30 full‑stack quantum computers.
IQM says the build will nearly double cleanroom capacity and speed testing and integration for error‑corrected machines. Work is targeted to finish by the first quarter of 2026. The move positions Finland as a manufacturing base for advanced quantum hardware.
Capacity doubles for quantum systems
The expansion formalizes a single production flow from chip to finished system, which can reduce bottlenecks and quality gaps. IQM frames the step as a way to match demand from labs and high‑performance computing centres that want on‑premises systems. The company also links the project to long‑term goals for fault‑tolerant computing.
“This will be one of the world’s most advanced production facility for quantum computers combining assembly lines and chip production,” said Pasi Kivinen, vice president of operations.
The new line is meant to deliver consistent output while tightening feedback between device physics and system engineering.
IQM’s investment lands as Europe works to secure fabrication know‑how and supply chains for quantum parts. The company notes the site will produce larger quantum chips aimed at error‑correction, a prerequisite for reliable operation.
That focus puts process control, cleanroom uptime, and cryogenic system integration at the centre of delivery schedules. It also builds a base for partner projects that need local manufacturing and test. The facility’s location near Aalto University and VTT supports that ecosystem.
Delivery timeline and siting
The upgraded plant will span about 8,000 square metres, according to IQM. Construction and tool installs are planned so assembly and chip runs can ramp in stages before full completion in early 2026. IQM says the site will use 100 percent renewable district heating and add an abatement system to limit process emissions. These choices aim to cut direct impacts from etch and deposition steps. They also address energy needs from cryogenic operations and test bays.
IQM has not disclosed detailed procurement packages, but the scope suggests cleanroom fit‑outs, vacuum tools, and cryogenic infrastructure. Vendors would likely span semiconductor equipment, RF control hardware, and specialised assembly suppliers.
Industry signals and next steps
The push to integrate fabrication and assembly echoes broader shifts in quantum hardware delivery. Buyers, often public agencies and research consortia, want predictable timelines and on‑site support. IQM’s plan speaks to those needs by binding chip supply, system build, and service under one roof.
“By enhancing our fabrication capabilities to produce large‑scale quantum chips for error‑correction technology, we will not only better serve our customers,” said Jan Goetz, co‑chief executive and co‑founder.
If the schedule holds, the Espoo site could deliver its first systems from the expanded line ahead of final completion. That would let IQM prove throughput and quality before full ramp. For project owners, a steady run rate matters as workloads move from prototypes to early applications. The expansion creates room for growth while keeping production close to talent and research partners. The coming quarters will test how well that model converts investment into reliable deliveries.