✓Stock options & equity
✓Medical, dental, and vision coverage
✓401(k)
✓Unlimited PTO
✓Catered lunches
✓Contribute directly to the design, development, analysis, integration, test, and operation of spacecraft Guidance, Navigation & Control systems.
✓Own well-scoped GNC problems from definition through modeling, algorithm development, simulation, test, documentation, and closure with support from senior engineers.
✓Work hands-on with simulation environments, flight and test data, hardware-in-the-loop or software-in-the-loop tools, sensor and actuator interfaces, and mission-analysis outputs.
✓Participate in design reviews, test campaigns, anomaly investigations, and mission-readiness activities; communicate GNC performance, risks, assumptions, and decisions clearly.
✓Collaborate across software, avionics, mechanical, propulsion, systems, and mission operations to understand interfaces and system-level impacts on GNC performance.
✓Build engineering judgment by comparing analytical models and simulations against test or operational data, identifying discrepancies, and iterating toward reliable flight performance.
✓Document models, algorithms, assumptions, requirements, interfaces, Monte Carlo results, test results, procedures, and technical decisions so others can review and reproduce the work.
✓Take increasing ownership as technical capability grows, progressing from supervised analysis and implementation tasks toward independent feature-, algorithm-, or subsystem-level responsibility.
✓Support spacecraft mission execution by helping translate mission objectives and constraints into credible GNC analyses, algorithms, test plans, and operational recommendations.
✓Bachelor's degree completed, or expected before start date, in Aerospace Engineering, Mechanical Engineering, Electrical Engineering, Applied Math, Physics, Robotics, or a closely related technical field.
✓Strong academic or project-based grounding in rigid-body dynamics, controls, estimation, navigation, orbital mechanics, numerical methods, or related GNC fundamentals, with the ability to explain technical reasoning from first principles.
✓Demonstrated hands-on GNC experience through internships, research, student spacecraft or robotics teams, capstone projects, personal projects, laboratories, or prior employment.
✓Ability to break down ambiguous GNC problems, identify assumptions, build appropriate models, make reasonable tradeoffs, and validate work through simulation, test, or data.
✓Clear written and verbal technical communication, including the ability to explain what was personally modeled, coded, analyzed, tuned, tested, or debugged versus what was completed by a team.
✓Comfort learning new spacecraft dynamics, sensors, actuators, software tools, and mission concepts quickly in an environment where responsibilities may evolve with program needs.
✓Ability to collaborate closely with software, avionics, propulsion, mechanical, systems, and mission-operations engineers and accept direct technical feedback without losing ownership of the problem.
✓Ability to comply with applicable export-control requirements and customer-access restrictions.
✓Internship, research, co-op, or project experience in spacecraft GNC, flight dynamics, robotics, autonomous systems, aerospace, defense technology, or another controls- or estimation-intensive environment.
✓Experience taking a GNC model, algorithm, or controller from analysis into simulation or test and using the results to drive changes.
✓Exposure to dynamics, feedback control, state estimation, navigation, orbital mechanics, trajectory analysis, simulation, Monte Carlo analysis, MATLAB/Simulink, Python, or C/C++.
✓Additional Requirements: Must be willing to work hands-on in the office, lab, integration, or test environment as required and to support occasional extended hours during critical test or mission activities.