Maritime Autonomy Engineer
Underwater autonomy is its own discipline — acoustic comms, drift, no GPS, sparse sensing. The teams building it are some of the smallest and most leverage-dense in the industry.
Courses for this role
Foundations
Marine engineering, sonar, and the ROS-based robotics stack that powers most USVs and AUVs today.
Buoyancy, drag, hull forms — the maritime equivalent of aerodynamics.
Sonar is to underwater what cameras are to air — the primary sensor.
The de facto robotics middleware for maritime autonomy.
University of Sydney course on AUV design and control.
Build the stack
Acoustic comms, underwater SLAM, and the integration realities of platforms where GPS only exists at the surface.
The only practical underwater data link — and it is brutal.
Mapping without GPS, often with only sonar returns.
Surface fixes are sparse; the INS is the primary nav.
The MIT-originated middleware that dominates academic and DoD-adjacent underwater autonomy work. Behavior-based, multi-objective, designed for the maritime decision problem.
Thrun et al. — the SLAM bible.
Thor Fossen's textbook is the maritime equivalent of "Modern Control Systems".
Field experience
Sea trials, IMO rules of the road, and the practical realities of operating in salt water at scale.
No simulator captures real waves.
A platform that works in calm water frequently breaks in Sea State 4. Knowing where your autonomy gives up is half the test plan.
USVs must comply with international maritime traffic rules.
Operating any uncrewed surface platform requires regulatory fluency.
Half of all maritime field failures are corrosion-related.