Senior Electromechanical Engineer - Antenna Systems

About the role

E-Space is pioneering a new era in global connectivity, making secure and actionable space-based services accessible to all. Our mission is to bridge Earth and orbit through hyper-scaled Internet of Things (IoT) deployments. We are architecting a next-generation Low Earth Orbit (LEO) system that revolutionizes the design, economics, and manufacturing of traditional satellite and terrestrial IoT infrastructure. Our team is driven by intense curiosity and a commitment to innovation, aiming to expand economies, safeguard our planet, and improve life quality through actionable intelligence from space. We are currently seeking a Senior Electromechanical Engineer to lead critical electrical, optical, and sensing harness and interconnect solutions for advanced space antenna applications. This is a hands-on position requiring innovation and precision to solve distinct challenges inherent to orbital environments. The role encompasses the entire product lifecycle, from initial system design and component selection through qualification, integration, and final flight acceptance. You will define the behavior of orbital hardware from conceptual stages to flight acceptance, with a primary focus on owning the full electrical, optical, and sensing harness for demanding antenna arrays. Your work will craft specific responses to the harsh conditions of space while ensuring reliable data flow from capture through orbit, involving the creation of initial schematics and models that determine antenna performance and sensor placement strategies.

Key facts

What you'll do

• Create initial schematics and models that determine antenna performance and sensor placement strategies for next-generation orbital hardware.
• Select connectors, conductors, and enclosures capable of surviving launch dynamics while adhering to strict budget constraints and project timelines.
• Conduct detailed analysis of signal behavior, radiation patterns, and thermal effects to refine the physical layout of harness components within strict orbital parameters.
• Build functional prototypes that integrate optical components, wiring, and structural elements into compact orbital units ready for rigorous testing.
• Perform tests on qualification samples to verify survival, functionality, and compliance under extreme conditions that mimic the vacuum and temperature fluctuations of space.
• Ensure seamless coordination with RF and software teams to guarantee antenna hardware alignment with communication waveforms and operational requirements.
• Maintain comprehensive documentation of designs, procedures, and results to satisfy audits, design reviews, and future reuse objectives for subsequent missions.
• Collaborate with manufacturing teams to translate complex design drawings into efficient, repeatable production methods that scale for hyper-scaled IoT deployments.
• Define signal integrity, grounding, and shielding protocols for sensitive hardware to meet the stringent demands of orbital electromagnetic environments.
• Partner with quality assurance specialists to validate that all electromechanical solutions meet the rigorous standards required for spaceflight certification and longevity.
• Optimize component selection processes to balance performance, reliability, and cost across the entire production lifecycle of the antenna systems.
• Drive the resolution of emergent engineering issues during prototyping and testing phases, applying creative problem-solving to maintain project momentum.

Requirements

• Possess 3 to 7 years of hands-on electromechanical experience in demanding operational environments that test the limits of conventional design.
• Demonstrate a strong foundation in printed circuit boards, cabling, and sensor harness design and implementation for critical applications.
• Show expertise in defining signal integrity, grounding, and shielding protocols for sensitive hardware exposed to variable orbital conditions.
• Exhibit the ability to communicate clearly and effectively with both engineering and operations teams in written and verbal formats during high-stakes project milestones.
• Understand the principles of electromagnetic compatibility and how they apply to dense arrays of sensors and antenna elements in confined spaces.
• Apply knowledge of mechanical design principles to create robust enclosures that protect delicate optical and electronic components from vibrational stress.
• Utilize analytical skills to interpret test results and make informed decisions that enhance the reliability of space-based systems.
• Commit to following detailed procedures and documentation standards required for aerospace certification and regulatory compliance.

Nice to have

• Prior involvement with space programs, optical interface design, or harsh environment testing would be highly valuable for accelerating project integration.