About the role
Help Build Europe's Hypersonic Capability At Hypersonica , we’re redefining what’s possible in European defence technology. We exist to deliver speed, resilience, and technological independence at a pace that sets a new standard. We are a small, elite team working on problems that matter, and solving them fast. By joining Hypersonica , you’re not stepping into a predefined role. You’re joining a talent dense environment where every individual shapes the direction of the company. Our philosophy is to hire a small number of exceptional people with broad, deep technical capability, strong judgement, and the ability to operate autonomously. We hire for talent, not rigid boxes. This role represents a business need, but the way it evolves will be shaped by the individual. If you’ve achieved what others said was impossible, or you bring a unique combination of skills that doesn’t fit a traditional mould, we want to hear from you. The work you do here directly contributes to Europe’s technological independence. What you’ll do Own and develop system-level FMEA / FMECA frameworks across vehicle design, AIT, and operations Define and drive a coherent system failure tolerance strategy, balancing redundancy, complexity, and performance Lead risk identification, quantification, and mitigation planning across the full product lifecycle Build structured failure analysis methodologies (fault trees, root cause analysis, etc.) and apply them to real test/flight data Translate reliability insights into clear design and architecture recommendations across avionics and system subsystems Evaluate trade-offs between reliability, cost, and performance, enabling informed engineering decision-making Ensure all credible failure modes are identified, assessed, and mitigated to acceptable risk levels Support and lead failure investigations from test campaigns, feeding learnings directly back into design Collaborate cross-functionally with GNC, hardware, software, and integration teams to ensure holistic system reliability Drive design-for-reliability principles early in the development cycle to avoid over- or under-engineering Establish best-in-class RAMS practices suitable for high-performance, mission-critical aerospace systems Continuously iterate based on real-world data to improve system robustness and long-term viability
