Summary
- Fortaegis has raised $50 million as it moves its secure-compute architecture towards commercial manufacturing in 2027.
- Its technology derives security functions from physical characteristics of silicon and extends that trust across hardware and software.
- Defence, telecoms, data centres, AI infrastructure, and other critical systems are among the markets the company is targeting.
Amsterdam-based Fortaegis has raised $50 million to commercialise a security architecture rooted in the physical characteristics of silicon, as demand for trusted computing extends beneath the software and cloud layers where most enterprise cyber controls operate.
The Dutch company plans to use the funding as it moves towards commercial manufacturing in 2027. Its target environments include defence, space, telecoms, data centres, autonomous systems, and other infrastructure where compromised computing equipment can create consequences beyond the loss of an individual device or data set.
The round includes Serendipity Capital and the venture arm of semiconductor-equipment company Tokyo Electron. Fortaegis operates across Europe, the US, and Asia and says its technology is already being deployed with governments, enterprises, and strategic technology partners.
Its architecture uses variations created during semiconductor manufacturing to establish hardware-rooted trust. Fortaegis says those physical characteristics can be used as part of a system that derives and changes cryptographic material rather than relying entirely on secrets stored conventionally on a device.
The company describes the wider platform as spanning silicon, hardware, software, and applications, with deployment models ranging from server infrastructure to hardened edge systems and vehicle networks. Its claims that the architecture is quantum-safe and can operate at very low latency remain company assertions rather than independently standardised conclusions and should be treated accordingly.
The technical direction reflects a broader security problem. Conventional controls typically concentrate on operating systems, applications, identities, networks, and data. Hardware-rooted approaches attempt to establish some elements of trust below those layers, where compromise can be harder to identify and where replacing or remediating equipment may be costly or operationally disruptive.
That becomes more relevant as computing spreads into environments where systems must authenticate and exchange information without continuous human supervision. Autonomous equipment, industrial infrastructure, military systems, and edge computing can all depend on distributed devices establishing whether other machines should be trusted before sharing data or accepting commands.
Fortaegis also sits within Europe’s wider effort to retain greater influence over strategically important technology infrastructure. The Netherlands already occupies a significant position in the semiconductor supply chain through ASML and the surrounding chip ecosystem. Security technology developed closer to the silicon layer adds another potential source of European capability, particularly where defence and critical infrastructure procurement increasingly intersects with technology sovereignty.
The commercial hurdle is considerably broader than proving that a security mechanism works in a laboratory. Hardware technologies have to survive manufacturing variation, integration into existing systems, certification, procurement, maintenance, interoperability, and long product lifecycles. Customers also need a way to understand what assurances remain when the platform is combined with third-party processors, software, networks, and applications.
The transition towards post-quantum cryptography creates another test. Organisations are already preparing for cryptographic migration using standards developed through formal international processes. Hardware products making quantum-resistance claims will therefore need to show how their underlying techniques fit with those standards and how systems can be upgraded if assumptions change over a deployment lasting many years.
Fortaegis says more than a decade of research sits behind its platform and that the technology has been validated by organisations including the Netherlands Organisation for Applied Scientific Research, TNO. Its work also includes collaboration with ASML and Eindhoven University of Technology around security for autonomous AI systems.
The new capital gives the company room to move from those development and validation projects towards larger-scale commercial deployment. Whether hardware-rooted trust becomes a routine layer of enterprise and critical-system architecture will depend on how well that technology survives the less glamorous requirements of integration, assurance, procurement, and lifecycle management.
