Openchip and SUSE: A Perfect Match for Europe’s Sovereign Infrastructure

 

Luxembourg and Barcelona, June 25, 2026.- Europe is at an inflection point. As AI, high-performance computing and edge deployments become foundational to economic competitiveness and national security, a hard truth has emerged: you cannot have technological sovereignty if the chips running your infrastructure and the software managing it are designed elsewhere, governed elsewhere, and controlled elsewhere.

This is the problem that Europe and a growing number of European organizations are racing to solve and it’s why deep and strategic collaboration between Openchip and SUSE matters.

 

The Case for European Sovereign Compute

Today, European digital infrastructure is largely built on a foundation of imported silicon and software stacks controlled by a small number of non-European vendors. That dependency carries real risk: supply chain disruption, regulatory exposure, loss of control over sensitive data and workloads, and limited influence over the roadmaps that shape critical infrastructure.

The European Commission has recognized this gap directly and is driving policy to address (see more below). For example, Openchip’s RISC-V-based compute accelerator technology has been designated as an Important Project of Common European Interest (IPCEI), a clear signal that building independent compute capability is now treated as strategic infrastructure and not a nice-to-have.

Sovereignty in this context doesn’t mean isolation. It means having the option to control where data lives, which vendors a system depends on, and how infrastructure evolves without being locked into decisions made outside Europe’s regulatory and political control.

 

Why Hardware Alone Isn’t Enough

Here’s where many sovereignty conversations stop short: designing a European chip is necessary, but it’s nowhere near sufficient.

Silicon without a mature software ecosystem gets you part of the way. The real value of compute infrastructure is unlocked by the operating systems, orchestration layers, security tooling, and AI platforms that run on top of it. Enterprises don’t deploy chips alone, that would not be sufficient. They deploy systems: certified, supported, production-grade stacks they can run mission-critical workloads on with confidence. Both are needed to build business resilience.

This is the gap that a hardware-software partnership is designed to close. Pairing RISC-V-based compute accelerator hardware with an established enterprise software stack means:

  • Certification and validation of hardware against real, deployed software.
  • Infrastructure that’s already proven at scale in data centers, telcos, and public sector environments.
  • AI enablement that goes beyond raw compute, covering model deployment, data/model locality controls, and security assurances that sovereign-conscious customers actually require.
  • A credible go-to-market story customers can act on immediately, rather than a hardware roadmap they have to wait years to operationalize.

Individual technology components alone don’t advance sovereignty. A co-designed hardware and software infrastructure that’s deployable, manageable and trusted in production does.

 

A Partnership Built for This Moment

This is the logic behind the deep collaboration between Openchip and SUSE. Openchip brings RISC-V-based compute accelerator silicon, purpose-built for AI and supercompute workloads, and the software to run it. SUSE brings decades of enterprise-grade open source software — SUSE Linux Enterprise, Rancher, and SUSE AI — already trusted across thousands of enterprise, partner, and government deployments worldwide.

The collaboration spans several concrete workstreams, that bring SUSE’s full product stack to Openchip’s silicon and together bring sovereign infrastructure solutions to the industry:

  • Silicon enabling: certifying and validating Openchip hardware against SUSE’s software stack so hardware ships with full stack support.
  • Infrastructure software: extending SUSE Rancher with the Kubernetes plugins and operators needed to manage Openchip devices at scale, so sovereign deployments get the same fleet management and security capabilities enterprises already rely on.
  • AI infrastructure: combining Openchip’s AI infrastructure software offering with the SUSE AI platform’s certified components, to bring trustworthy AI inference to sovereign compute environments.
  • Customer and ecosystem engagement: taking this jointly to market across data centre, defense, healthcare, telco, HPC, and enterprise AI.

Together, this reflects something the sovereignty conversation often misses: real technological independence requires partnerships, not just standalone products. No single vendor, hardware or software, can deliver a credible sovereign business stack alone.

 

The Policy Tailwind: Chips Act 2.0 and CADA

With recent developments this is quickly becoming EU policy. On June 3, 2026, the European Commission unveiled its Tech Sovereignty Package, anchored by two proposals that speak directly to the case for sovereign compute: the Chips Act 2.0 and the Cloud and AI Development Act (CADA).

Chips Act 2.0 builds on the original Chips Act’s €52 billion in mobilized investment by shifting focus beyond production, toward demand. It introduces “Grand Challenges” to drive industrial development of strategic chips, AI accelerators among them, and explicitly creates synergies with CADA so that growth in data centers, cloud providers, and AI gigafactories translates into real demand for European-designed silicon.

CADA, in turn, tackles the infrastructure side: it aims to triple the EU’s data center capacity within five to seven years and introduces a tiered cloud sovereignty framework, where the most sensitive public-sector workloads require providers with EU ownership, EU control, and full transparency over their software supply chain. It also pushes public procurement to weight “Union added value” — whether the hardware and software underpinning a service were actually designed and built in Europe.

Read together, the message to the market is direct: Europe is not funding sovereign silicon or software alone. Their intent is to build the regulatory and procurement demand that makes a sovereign hardware-software stack a commercial necessity. That’s precisely the gap a partnership like Openchip and SUSE is positioned to fill.

 

Who Benefits: The Verticals That Need This Most

Sovereign infrastructure   solves concrete problems for specific buyers:

  • Data centers and cloud operators seeking differentiated, European-origin infrastructure options for sovereignty-sensitive customers.
  • Enterprises in data-intensive industries — healthcare, finance, and industrial sectors — where data residency, security certification, and long-term supply continuity directly affect risk and compliance posture.
  • Public sector organizations, including HPC centres, that must keep citizen and government data within jurisdictional and regulatory boundaries.
  • Defense agencies that cannot risk dependency on infrastructure they don’t fully control or audit.
  • Telcos, which are increasingly pushed toward edge and distributed compute architectures with strict resilience and data-locality requirements.

For all of these customers, the requirement does not stop at “European hardware.” It’s a validated, end-to-end stack, from silicon to application, that they can deploy and support at scale.

 

Looking Ahead

Europe doesn’t need to choose between performance and independence, or between innovation and control. What it needs is infrastructure where the hardware and the software it runs on are co-designed, validated, and supported together, built by partners who understand that sovereignty is ultimately a customer deliverable.

The work ahead, certification, roadmap alignment, joint customer pilots, is exactly the kind of unglamorous, foundational effort that determines whether sovereign infrastructure becomes a real deployment option or stays a policy aspiration. That’s the bet this partnership between Openchip and SUSE is making.

Robin Giller, Chief Product Officer at Openchip