RF AIT Engineer
Role highlights
Title: RF AIT Engineer
Department: Global Manufacturing Organization
Reports to: Head of MAITE Japan
Location: Tokyo, Japan
Type of Contract: Permanent
Working model: On-site
Employment is subject to applicable security screening (incl. SUPO, where required)
Why this role matters
As an RF AIT Engineer, you own the RF/payload side of production at ICEYE end to end -- integration, debugging, continuous improvement, and adapting processes as new designs come through. You will lead unit-level and satellite-level verification and validation campaigns for communications and SAR payload systems, integrate RF hardware with satellite subsystems, and own anechoic chamber testing to ensure functional readiness. You will act as the primary technical contact for RF-related integration issues and drive continuous improvement across AIT methods, test efficiency, and build reliability --ensuring every spacecraft meets ICEYE's standards for mission success.
Who We Are
ICEYE is the world leader in sovereign intelligence from space. We deliver persistent monitoring capabilities to detect and respond to changes in any location on Earth.
ICEYE owns the world's largest and most advanced SAR (synthetic aperture radar) satellite constellation. To our customers we provide intelligence with unmatched quality, latency and revisit times, in any weather, day or night. To governments who choose to operate their own constellation we provide this proven capability as a sovereign system.
ICEYE-built constellations serve customers in defense and intelligence, environmental monitoring, insurance and emergency management. We enable fast decisions that contribute to a safer future.
Founded and headquartered in Finland, ICEYE operates globally with over 1000 employees across Europe, North America, the Middle East, and Asia-Pacific.
Your day-to-day responsibilities
Execute unit-level and satellite-level verification and validation (V&V) campaigns, focusing on RF functional performance, communications link integrity, and SAR payload health
Lead the integration of RF hardware (comms, SAR payload) with satellite subsystems (avionics, power, thermal), ensuring seamless interoperability
Own anechoic chamber test campaigns end to end. That is, test planning, execution, data reduction, and pass/fail assessment against link budget and antenna pattern requirements
Develop and maintain automated test scripts and frameworks to enhance efficiency, repeatability, and coverage across functional and environmental test campaigns
Act as primary technical contact for RF-related integration issues, performing root cause analysis and coordinating with RF/comms/SAR payload engineering to resolve anomalies
Support production readiness and design reviews (PRR, CDR) by providing feedback on software testability, hardware-in-the-loop requirements, and system configuration
Contribute to and improve AIT documentation including RF test procedures, integration plans, and configuration records
Interface with Global AIT, RF/Comms/SAR Payload Engineering, and Mission Operations teams to ensure alignment on product standards and lessons learned
Drive continuous improvement initiatives in integration methods, test efficiency, and build reliability
What we’re looking for
Must haves
3+ years of hands-on experience in integration, testing, or production of complex systems, preferably in aerospace or high-reliability hardware industries
Deep technical understanding of satellite RF architectures including communications subsystems, SAR payload, antennas, and link budgets
Hands-on experience with anechoic chamber testing (antenna pattern measurement, radiated performance verification)
Working proficiency in Python for test automation and data analysis
Proven experience in multidisciplinary engineering environments with a focus on system-level validation
Familiarity with hardware-in-the-loop (HIL) testing, environmental testing (EMC, vibration, thermal), and configuration management
Systems engineering mindset -- able to anticipate integration risks and connect RF performance, hardware interfaces, and mission operations