
Diploma in Robotics for Hull and Underwater Cleaning
The Diploma in Robotics for Hull and Underwater Cleaning Prepares you to apply robotics to cleaning and inspecting ship hulls and underwater surfaces. You will study biofouling and its effect on fuel consumption and the spread of
Prior Knowledge Assessment
These are the skills this programme builds. Tick the ones you already have and we will tell you which part of the syllabus is really for you.
What is the Diploma in Robotics for Hull and Underwater Cleaning?
The Diploma in Robotics for Hull and Underwater Cleaning
Prepares you to apply robotics to cleaning and inspecting ship hulls and underwater surfaces. You will study biofouling and its effect on fuel consumption and the spread of invasive species, in-water cleaning robots and their adhesion, navigation and debris capture systems, compatibility with antifouling coatings, and the IMO guidelines and port rules that govern these operations, so that you can plan cleaning that is effective, safe and environmentally sound.
Key advantages
- A real problem: Biofouling affects both efficiency and biodiversity.
- Applied robotics: Adhesion, hull navigation and cleaning tools.
- Environmental focus: Capturing and treating cleaning debris.
- Regulatory framework: International guidelines and port requirements.
- Case study: A robotic biofouling management plan for a ship.
Programme highlights
- Understand biofouling: Analyse its impact on efficiency and biodiversity.
- Know the robots: Master adhesion and cleaning systems.
- Protect the environment: Apply debris capture and filtration.
- Comply with the rules: Work within the IMO guidelines and port requirements.
- Boost your career: Open doors to shipping companies, ports, shipyards and subsea service firms.
- Train to help ships sail cleaner, more efficiently and with less environmental impact.
Programme Structure
The programme is structured in 8 modules, listed below in order of study.
Biofouling and Its Impacts
- How biofouling forms
- Microfouling and macrofouling
- Effect on hull resistance
- Fuel consumption and emissions
- Spread of invasive species
- Critical areas of the hull
- Ship operating factors
- Hull performance indicators
Coatings and Prevention Strategies
- Antifouling coatings
- Foul-release coatings
- The Anti-Fouling Systems Convention
- Proactive and reactive cleaning
- Compatibility of cleaning and coatings
- Ultrasonic systems and other alternatives
- Biofouling management plans
- Dry-docking and cleaning in dock
Hull Cleaning and Inspection Robots
- Types of hull robot
- Magnetic and suction adhesion
- Locomotion on curved surfaces
- Cleaning tools
- Visual and ultrasonic inspection
- Cleaning niche areas
- Ship-operated robots
- Technology readiness of solutions
Navigation, Control and Perception
- Localisation on the hull
- Mapping the surface
- Coverage planning
- Contact force control
- Vision in turbid water
- Detecting fouling levels
- Autonomy and teleoperation
- Logging operational data
Debris Capture and Waste Management
- Waste generated by cleaning
- Capture and suction systems
- Filtration and separation
- Handling biocides and metals
- Disposal ashore
- Water quality monitoring
- Risk of releasing species
- Environmental good practice
Regulations and Port Requirements
- IMO biofouling guidelines
- National and regional rules
- Port permits for in-water cleaning
- Testing and approval standards for systems
- Ship documentation and records
- Port state control inspections
- Operator responsibilities
- Regulatory trends
Operations, Safety and Economics
- Planning the operation
- Coordinating with the ship and port
- Safety compared with diver cleaning
- Risks of robotic operations
- Robot maintenance
- Cost-benefit analysis
- Fuel and emissions savings
- Service models
Case Study: Robotic Biofouling Management Plan
- Describing the ship and its route
- Assessing hull condition
- Selecting the technology
- Cleaning and inspection plan
- Waste management
- Regulatory compliance
- Economic analysis
- Presenting the plan
Study Time and Workload
800 hours of study, online and at your own pace. Move the slider to the hours a week you can really put in.
Naval, mechanical or industrial engineers: who want to specialise in maintenance robotics Shipping company superintendents and technical staff: responsible for fleet maintenance Subsea service company professionals: looking for alternatives to diver cleaning Port authority staff: who regulate in-water cleaning Coatings sector professionals: who work with antifouling systems
Academic direction and faculty
The teaching team at Navalis: working professionals who deliver and oversee the institute's programmes.








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Learning Outcomes
- 01Understand biofouling
- 02Know the robotic technologies
- 03Evaluate cleaning systems
- 04Manage waste
- 05Apply the regulations
- 06Plan operations
Career Opportunities
Entry Requirements
Admissions Process
No waiting for a phone call. If your documents are complete, you can pay in the same session.
Entry profile: A degree in naval architecture, mechanical or industrial engineering or a related field, nautical studies or marine science; or professional experience with shipping companies, shipyards, ports or subsea services. Language: A good working level of English to follow classes and materials. Technical requirements: A computer with a stable internet connection, an up-to-date browser and a webcam for live sessions and project presentations. Admissions process: Online application, profile review and a short interview with the academic team. We confirm your start date when you enq
Frequently Asked Questions
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