Who we are

Helsing is a defence AI company. Our mission is to protect our democracies. We aim to achieve technological leadership, so that open societies can continue to make sovereign decisions and control their ethical standards.

As democracies, we believe we have a special responsibility to be thoughtful about the development and deployment of powerful technologies like AI. We take this responsibility seriously.

We are an ambitious and committed team of engineers, AI specialists and customer-facing programme managers. We are looking for mission-driven people to join our European teams – and apply their skills to solve the most complex and impactful problems. We embrace an open and transparent culture that welcomes healthy debates on the use of technology in defence, its benefits, and its ethical implications.

The role

As the Systems Engineer for Electromagnetic Interference (EMI), you will own the end-to-end EMI/EMC engineering lifecycle for our airborne platforms, translating complex electromagnetic requirements into measurable subsystem

specifications and defining the comprehensive EMC Control Plan.

You will lead advanced electromagnetic modeling to optimize antenna placement and mitigate interference, working closely with cross functional teams and suppliers to manage complex architectures for grounding, shielding, and cable segregation.

Ultimately, your technical leadership will ensure our mission-critical defense platforms operate flawlessly in the most demanding and contested electromagnetic environments.

The day-to-day

Own the end-to-end EMI/EMC engineering for an airborne platform, including the control plan, compliance roadmap, and integration strategy across all subsystems.

Translate platform-level electromagnetic environment requirements (intra/inter-system, external RF, lightning, HIRF, ESD, EMP) into measurable subsystem-level EMI/EMC requirements and KPIs.

Define and maintain the EMC Control Plan: grounding, bonding, shielding, filtering, and cable segregation philosophies.

Perform electromagnetic interference analysis across the platform: emissions/susceptibility, antenna-to-antenna coupling, co-site interference, and intermodulation between RF subsystems.

Lead EM modeling and simulation: antenna placement, cable coupling, shielding effectiveness, lightning indirect effects, and HIRF using tools such as CST, FEKO, HFSS, or equivalent.

Define zoning, bonding, and grounding architecture, including lightning protection and current return network for metallic and composite structures.

Support antenna integration and placement trade studies, including pattern degradation and isolation budgets.

Establish the EMI/EMC qualification and verification strategy against applicable standards (MIL-STD-461, MIL-STD-464, DO-160, STANAG, or equivalent).

Own the EMI/EMC test campaign: plans, procedures, chamber and on-platform testing, and corrective actions.

Coordinate cross-functional design decisions with airframe, avionics, EW, comms, propulsion, power, and mission computing; manage EM trade-offs.

Own EMI/EMC-related interfaces and ICDs (grounding, shielding, filtering, connector specifications).

Manage supplier technical governance for EMI/EMC compliance and non-conformance closure.

You should apply if you

Hold a relevant degree in Electrical Engineering, Aerospace Engineering, or a related field.

Have proven experience in EMI/EMC engineering for airborne platforms with end-to-end ownership from requirements to certification.

Have a strong understanding of electromagnetic theory: transmission lines, antennas, wave propagation, shielding, grounding, and coupling mechanisms.

Can convert platform-level requirements into subsystem-level EMI/EMC specifications and verification criteria.

Are familiar with applicable standards and relevant NATO/STANAG or national military airworthiness frameworks.

Have hands-on experience with EM simulation tools for antenna placement, coupling, shielding effectiveness, HIRF, and lightning indirect effects analysis.

Have experience designing grounding, bonding, shielding, filtering, and cable segregation schemes for complex platforms, including composite structures.