Planckian Selected for EuroHPC Quantum Grand Challenge
On September 16, 2026, Planckian announced its selection for Phase 1 of the EuroHPC Quantum Grand Challenge. Indeed, this European Union program supports quantum computing platforms deemed by the EU to have the most credible path to industrial-scale systems. Planckian was one of thirteen companies chosen from 27 eligible proposals, and also the only Italian firm on the list.
Understanding the EuroHPC Quantum Grand Challenge
According to a September 16 report, the Grand Challenge comes in two phases. Specifically, Phase 1 provides funding for a technical roadmap and commercialization strategy over four months, commencing upon the signing of each grant agreement. Companies that successfully complete Phase 1 become eligible to apply for up to 30 million euros in funding from the European Investment Bank in Phase 2, intended for building market-ready systems.
Both reports indicate a Phase 1 award of 300,000 euros per company. As of late September 2026, a EuroHPC JU notice hasn’t officially confirmed details such as this figure, evaluation criteria, the total program budget, and precise Phase 2 gate requirements.
This program signifies a shift in how Europe allocates quantum funding. Instead of one-off grants, the Grand Challenge employs a staged selection process linked to the EU’s supercomputing initiatives. Whether this structure will result in benchmarked, deployed machines remains to be seen; Planckian’s inclusion is an early data point.
Who is Planckian and Why Was it Selected for Phase 1?
Planckian is a small Italian company, with 1 to 10 full-time employees. It develops a superconducting chip architecture designed to reduce wiring requirements, addressing a known scaling problem. Conventional superconducting processors need dedicated control lines for each qubit, which leads to increased costs for wiring, cryogenic cabling, and room-temperature electronics as the number of qubits grows. Planckian claims its architecture allows multiple qubits to share the same control lines.
The company’s project, SQALE, aims to develop a technical and financial roadmap for scaling this architecture toward a fault-tolerant, industrial-scale system, according to the company statement. CEO Michele Dallari stated that the Grand Challenge demonstrates Europe’s commitment to transforming research into commercially viable machines, and that Planckian’s approach “changes the economics of large-scale machines.”
Though reporting establishes the SQALE name and the roadmap deliverable, specifics on qubit modality, team details, investors, and funding history are not available in the provided sources. There is no independent benchmark confirming the effectiveness of the shared-control approach at scale, nor is quantum advantage claimed or demonstrated here.
What Selection Guarantees (and Doesn’t)
Phase 1 is a qualification step, not a deployment. Selection grants Planckian four months and, based on reported figures, 300,000 euros to develop a plan. It does not fund a machine or award the 30 million euros. That EIB funding is something Phase 2 survivors can apply for, which is distinct from receiving it.
Neither trade report specifies how Phase 1 work connects to actual EuroHPC supercomputers. Thus, the scope of integration remains undisclosed for now. Potential failure modes include a strong paper roadmap that never materializes into hardware, or a Phase 2 application that competes for limited EIB funds against companies with stronger balance sheets.
The Wider Context of the Challenge
The Grand Challenge is part of a larger European funding initiative. The EuroHPC JU has six open quantum calls, with a deadline of November 17, 2026, at 17:00 CET. These calls cover trapped-ion and superconducting computing, neutral atoms, next-generation QKD, testing infrastructure, and experimental pilot lines.
This wide approach indicates the EU is diversifying its investments across various hardware modalities and security work. The Grand Challenge represents the staged, commercialization-focused component of this strategy.
Europe Versus Global Approaches
Contrast Europe’s staged model with the US approach. IonQ announced its acquisition of SkyWater Technology to create what it described as the only vertically integrated full-stack quantum platform company. IonQ also reported record second-quarter 2026 revenue of $80.1 million, a 287% year-over-year increase.
Japan offers a different strategy. Fujitsu released its OpenQARP quantum application package under Apache 2.0, as reported by Open Source For You. This is a software ecosystem play, which aims to attract developers through open tooling. Fujitsu’s claimed code-reduction figures are self-reported and not independently verified. Europe’s response, thus far, involves staged public funding and a commercialization gate.
Verifying and Assessing Supporting Sources
Hardware roadmaps are tested in error correction. Altera posted on LinkedIn that its Agilex 7 FPGAs validated a Riverlane quantum error-correction interface for real-time correction. Similarly, Iceberg Quantum’s claims about LDPC codes reducing error-correction overhead are company statements without independent verification in the available evidence.
On the security front, Q*Bird rebranded as Falqon Systems, focusing on quantum-secure networks. Deployment claims here originate from the company’s own website.
What to Watch Next
Three key dates will indicate the success of this model. First, Planckian’s Phase 1 deliverables, due approximately four months after its grant is signed. Second, the November 17, 2026, 17:00 CET deadline for the six EuroHPC calls, which will reveal the depth of the applicant pool. Third, any Phase 2 funding actually awarded, not merely applied for. Until then, this is a qualification milestone with unproven outcomes. Monitor the EuroHPC JU’s official notices as they are published, and cross-reference program numbers with primary documents when available.