Turnkey solutions for unmanned vessel control systems — navigation software, Hardware-in-the-Loop simulation, and electronic chart distribution. Compliant with COLREG, SOLAS, and IHO S-57/S-63.
Progressive Marine Algorithm provides turnkey solutions for autonomous and remotely operated surface vessel control systems — covering navigation control, collision avoidance, simulation, and electronic chart distribution.
Our products are designed to work with real onboard hardware and tested using Hardware-in-the-Loop methodology. We provide technical documentation and regulatory support for type approval under IMO, IHO, and classification society requirements.
We work with vessel operators, shipyards, maritime academies, and equipment manufacturers across the Middle East, Asia, and Europe.
Navigation and control software for unmanned surface vessels. Runs on the vessel's onboard computer and connects to a shore-based operator workstation. Handles route execution, obstacle avoidance, and propulsion control in both automatic and manual modes.
A test bench where real vessel hardware — onboard computer, steering controller, engine management unit — connects to a simulated maritime environment. Sensor inputs (radar, GPS, AIS, camera) are generated in software. Allows systematic testing of navigation algorithms and fault responses without sea trials.
Software platform for centralised delivery of all vessel digital data required for regulatory compliance — AVCS electronic navigational charts, digital publications, nautical documents, and operational records. Manages licences, tracks permit expiry, and pushes delta updates to onboard systems. Ensures vessels meet IMO, SOLAS, and flag state requirements for digital record-keeping and chart carriage.
Sea trials are expensive, slow to schedule, and unsuitable for testing failure modes. HIL testing connects real hardware to a simulated environment, letting engineers run the same scenario hundreds of times and deliberately inject faults in a controlled setting. Test reports generated on the bench are accepted by DNV, Lloyd's Register, and other classification societies.
Real onboard hardware receives simulated sensor signals. Collision-avoidance decisions are measured against COLREG rules across thousands of edge cases impossible to replicate at sea.
Real steering controllers and engine management units connect to the bench. CAN bus errors, timing mismatches, and integration bugs are caught where fixes cost 100× less.
The bench injects failures: gyrocompass dropout, lidar blackout, GPS spoofing, severed shore link. Degraded-mode handling and failover logic verified before deployment.
DNV, Lloyd's Register, and other class bodies require HIL test evidence before granting autonomous vessel permits. Our bench generates structured, audit-ready reports.
Software teams test navigation algorithms while hardware teams validate sensors — and the vessel may not yet be built. HIL compresses the development timeline.
From port authorities to defence operators — our systems are designed for the full breadth of maritime and unmanned surface operations.
Autonomous and remotely supervised vessel systems for cargo, tanker, and RoRo operators.
HIL-based simulator platforms and curriculum for training bridge officers in ECDIS and autonomous systems.
USV autonomy systems, sensor fusion, and threat-detection algorithms for patrol and surveillance.
Vessel traffic service integration, autonomous berth management, and smart port digital infrastructure.
Autonomous inspection vessels for offshore wind, oil platforms, and subsea infrastructure.
Technical documentation, HIL test reports, and type-approval support for equipment manufacturers.
Send us your project requirements or technical questions. We respond within one business day.