Lead Controls Engineer (UAVs)
As Lead Controls Engineer, <\/b>\u200byou will own the control systems architecture<\/b>, guide algorithm development (attitude, trajectory, and mission\-level control), and lead a team of controls engineers<\/b>. This role combines technical depth<\/b> in flight dynamics and control theory with leadership responsibilities<\/b>, including mentoring, roadmap development, and cross\-team collaboration with firmware, autonomy, and systems integration teams. Architect, implement, and optimize control systems for attitude, altitude, velocity, and trajectory tracking<\/b>. Develop both low\-level controllers<\/b> (motor commands, stabilization) and high\-level controllers<\/b> (trajectory following, waypoint tracking). Model and analyze UAV dynamics under variable payloads and flight conditions. Explore and implement advanced control methods (e.g., LQR, MPC, adaptive control, fault\-tolerant control). Stay updated with the state of the art in control systems<\/b>, UAV dynamics, and adaptive/autonomous control methods. Drive innovation by evaluating new algorithms (e.g., AI/ML\-enhanced control strategies). Ensure documentation, safety standards, and compliance with UAV regulatory requirements. Lead the use of simulation environments<\/b> (MATLAB/Simulink, Gazebo, AirSim, SITL/HIL) for validation. Define test cases and metrics for control performance, robustness, and safety. Oversee parameter tuning<\/b> and log analysis during lab and field flight testing. Work closely with: Firmware engineers<\/b> to ensure low\-level control implementation on embedded hardware. Autonomy engineers<\/b> to connect planners with trajectory controllers. Perception & sensor fusion teams<\/b> to leverage accurate state estimation for stable control. Flight test team<\/b> to validate and iterate in real\-world conditions. Master\u2019s or Ph.D. in Aerospace Engineering, Controls, Robotics, or related field<\/b>. 6\u201310 years<\/b> of experience in control systems for robotics or UAVs. Strong expertise in: Classical control (PID, cascaded loops). Modern control (LQR, MPC, nonlinear/adaptive control). State estimation and dynamics modeling. Proficiency in MATLAB/Simulink<\/b>, C++<\/b>, and Python<\/b>. Hands\-on experience with PX4, ArduPilot<\/b>, or custom autopilot stacks. Proven experience with real\-world tuning<\/b> and analyzing UAV flight logs. Experience leading small teams or projects. Familiarity with fault\-tolerant and redundant control architectures<\/b>. Knowledge of certifiable RTOS environments<\/b> (SafeRTOS, INTEGRITY). Hands\-on flight testing of UAVs (quadrotors, VTOLs, fixed\-wing). Contributions to control\-related research, publications, or open\-source projects. Technical leadership role at the heart of Unmannd\u2019s flight systems. Direct impact on real\-world UAV performance and reliability. Access to real hardware platforms, flight ranges, and simulations. Collaborative startup culture with opportunities to grow into Head of Controls / Autonomy<\/b>. Competitive salary and equity options.
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<\/p><\/li><\/ul><\/ul><\/span>Requirements<\/h3>
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<\/p><\/li><\/ul><\/span>Benefits<\/h3>
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