The Role
Design and own guidance, navigation, and control systems for high-speed interceptors. Develop guidance laws, flight-control loops, actuator models, state-estimation and sensor-fusion pipelines, and high-fidelity 6DOF simulations. Build embedded real-time GNC software, conduct hardware-in-the-loop and ground intercept testing, and analyze Monte Carlo and worst-case results. Collaborate with sensing, perception, propulsion, actuation, embedded, and vehicle-design teams to deliver reliable autopilot performance.
Summary Generated by Built In
Overview
Compensation
You will own Wardstone’s guidance, navigation, and control stack, including the algorithms, simulations, and flight software that make our interceptors hit their targets.
You’ll make the core architecture decisions, including the guidance laws, the estimation approach, and the actuation strategy. You’ll set the controllability requirements that shape the vehicle. You’ll work directly with the founders and with the seeker, propulsion, mechanical, and avionics engineers. You’ll take GNC from simulation through hardware-in-the-loop testing to live intercepts.
What You’ll Do
Lead the GNC team
- Lead, mentor, and grow the GNC team, including hiring, setting priorities, and reviewing designs and code.
- Own the GNC architecture and roadmap, and give clear tradeoffs to founders and other teams.
- Set the team’s standards for simulation, verification, flight software quality, and analysis documentation.
Develop guidance
- Design guidance laws for midcourse and terminal homing under high-speed, nonlinear dynamics, such as proportional navigation and its variants, or optimal control methods.
- Develop intercept prediction algorithms from seeker tracks and onboard state estimates.
Design flight control
- Lead the actuation architecture trade, such as the vehicle ADB, aerodynamic control surfaces, thrust vectoring, or divert thrusters.
- Design and tune robust control loops for high-G, high-rate maneuvers.
- Model actuator bandwidth, latency, saturation, and uncertainty.
Own navigation and estimation
- Own the navigation filter and target-state estimator (EKF/UKF), fusing seeker tracks with IMU, GPS, and onboard timing.
- Work with the seeker team to define the seeker-to-guidance interface. Make sure estimation stays reliable under noise, latency, jitter, and thermal effects.
Build simulation and analysis
- Build and maintain high-fidelity 6DOF simulations, including supersonic aerodynamics, propulsion events, actuator dynamics, and seeker models.
- Run Monte Carlo and worst-case analyses to drive vehicle design decisions.
Test and fly
- Deliver GNC flight software that meets hard real-time constraints, working with avionics and embedded engineers.
- Lead hardware-in-the-loop testing with real sensors and scene generators.
- Lead GNC through ground and flight tests, including tuning, data collection, and post-flight analysis.
Shape the vehicle
- Set controllability requirements that shape the airframe, control surfaces, and propulsion.
- Work with propulsion on control authority and impulse timing.
Required Qualifications
- B.S. in Aerospace Engineering, Mechanical Engineering, Electrical Engineering, Robotics, or a related field. M.S. or Ph.D. preferred.
- 5+ years of GNC experience, including algorithms that have flown on real hardware.
- Experience leading engineers or owning a major GNC subsystem from design through flight test.
- Deep understanding of classical and modern control theory.
- Strong background in guidance, state estimation, and nonlinear dynamics.
- Experience building 6DOF flight simulations (MATLAB, Simulink, Python, or C++).
- Hands-on experience tuning controllers for missiles, rockets, UAVs, or other autonomous flight systems.
- Fluency with coordinate frames, quaternions, and navigation transformations.
- Must be a U.S. person as defined by ITAR (U.S. citizen, lawful permanent resident, or protected individual). [Must be eligible to obtain a U.S. security clearance.]
Nice to Have
- Experience with missile guidance, interceptors, or hypersonic systems.
- Experience with optimal control (MPC, LQR variants, differential games).
- Experience with radar seeker integration or seeker-in-the-loop guidance.
- Experience with embedded real-time systems, RTOS, or high-rate control loops.
- Experience with flight qualification or MIL-STD environmental testing.
- Prior early-stage startup experience.
The base pay range for this role is $180,000 – $240,000 per year.
Skills Required
- B.S. or M.S. degree in Aerospace Engineering, Mechanical Engineering, Robotics, Controls, or a similar field
- Deep understanding of classical and modern control theory
- Experience building 6DOF flight simulations using MATLAB, Simulink, Python, or C++
- Strong background in state estimation, nonlinear dynamics, filtering, or guidance algorithms
- Hands-on experience tuning controllers for UAVs, rockets, missiles, or autonomous systems
- Familiarity with coordinate frames, quaternion mathematics, and navigation transformations
- US Person or lawful permanent resident status
- Experience with high-speed interceptors, hypersonics, or missile guidance
- Familiarity with aerodynamics, actuator modeling, or impulse-based control
- Experience with optimal control, including MPC, LQR variants, or differential games
- Experience with embedded real-time systems, RTOS, or high-rate control loops
- Experience integrating perception, including IR/EO or computer-vision algorithms, into closed-loop guidance
- Experience with MIL-STD flight hardware, environmental testing, or flight qualification
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The Company
What We Do
Wardstone develops modular, mass-producible interceptor platforms for air and missile defense. Its systems are designed to match interceptor performance to mission requirements, reduce costs, and support scalable production. The company is developing surface- and space-based interceptors, including satellites intended to kinetically defeat air-breathing, ballistic, and hypersonic missile threats while complementing existing defense systems. Its architecture uses interchangeable components that can be upgraded and manufactured at scale.
