Master’s Degree in Circularity and Naval Recycling
Why this master’s programme?
The Master in Circularity and Naval Recycling
This program empowers you to lead the sustainable transformation of the maritime industry. Learn to implement circular economy strategies, optimize waste management, and master ship recycling techniques, while complying with the most demanding environmental regulations. This program will provide you with the tools and knowledge to design innovative solutions that minimize environmental impact and maximize the value of naval resources.
Differential Advantages
- Comprehensive Approach: from eco-efficient design to responsible decommissioning.
- Real-World Case Studies: analysis of projects and solutions implemented in the industry.
- Innovative Technologies: knowledge of the latest trends in recycling and materials management.
- Regulatory Framework: mastery of national and international environmental legislation.
- Professional Networking: contact with experts and leading companies in the sustainable shipbuilding sector.
- Modality: Online
- Level: Masters
- Hours: 1600 H
- Start date: 26-04-2026
Availability: 1 in stock
Who is it aimed at?
- Naval engineers, naval architects, and maritime industry professionals seeking to lead the transition to sustainability in the sector.
- Shipyard and shipbreaking company managers who need to optimize processes for efficient and responsible naval recycling.
- Environmental consultants and public administration technicians interested in regulation and compliance regarding naval circularity.
- R&D and sustainability managers who aspire to develop new materials and technologies for the circular economy in the naval sector.
- Graduates in environmental science, engineering, and related fields seeking a high-impact specialization in a sector in Boom.
Flexibility for professionals
Adapted to your needs: flexible online format, content accessible from any device, and personalized tutoring for your professional development.
Objectives and skills
Design and manage naval recycling projects:
Develop safe and economically viable naval dismantling plans, complying with environmental and safety regulations.
Optimizing waste management in the shipbuilding industry:
Implement a comprehensive plan for minimizing, segregating, treating and disposing of waste, complying with MARPOL and local regulations, and promoting the circular economy.
Implementing circular economy strategies in shipyards:
“To evaluate the complete life cycle of ships and their components to optimize reuse, repair and recycling, minimizing waste generation and the consumption of new materials.”
Develop and implement technologies for the valorization of naval materials:
Identify and adapt innovative recycling processes for specific components (steel, aluminum, reinforced plastics) maximizing their reuse and minimizing waste.
Evaluate the life cycle of vessels for redesign and reuse:
Analyze environmental regulations (MARPOL, recycling agreements) and technical/economic feasibility to optimize the sustainability of the process.
Leading the transition towards sustainable and circular naval models:
“Integrating alternative propulsion technologies and energy consumption optimization strategies into fleet management.”
Study plan – Modules
Innovative strategies and technologies for sustainable waste management in the shipbuilding industry
- Fundamentals of the Circular Economy applied to the shipbuilding industry: principles, benefits, and specific challenges
- Diagnosis and life cycle analysis of ships: identification of waste flows and opportunities for sustainable improvement
- Advanced strategies for waste minimization and valorization: reduction at source, reuse, internal and external recycling
- Emerging technologies for the treatment of solid and liquid waste generated in shipbuilding processes: advanced incineration, anaerobic digestion, and innovative separation systems
- Efficient management of hazardous and polluting waste present in the shipbuilding industry: treatment, storage, and applicable international regulations
- Innovation in modular design and dismantling to facilitate recycling and material recovery in shipbuilding and decommissioning
- Implementation of intelligent systems for real-time monitoring and control of waste flows: IoT, Big Data, and digital platforms
- Integrated sustainable management models: internal policies, regulatory compliance (MARPOL, Basel Convention), and circular economy practices in ports and shipyards
- Success stories and international benchmarking: detailed analysis of pioneering projects in circularity and naval recycling
- Training and cultural change for crew and technical teams: training in best practices and sustainable leadership in waste management
- Economic and environmental assessment: methods for measuring return on investment and reduction of ecological footprint in naval recycling projects
- Contingency plans and emergency protocols for integrated waste management in critical situations
- Fundamentals of the circular economy applied to the shipbuilding industry: principles, benefits, and specific challenges
- Naval materials and their life cycle: identification, characterization, and recycling potential
- Design for dismantling and recycling: strategies to facilitate the recovery of components and materials
- International regulations and sector standards in naval recycling: Hong Kong Convention, MARPOL, and local regulations
- Advanced environmental impact assessment: life cycle assessment (LCA) for ships and naval structures
- Innovative technologies for the separation and classification of naval waste: automated systems and applied robotics
- Advanced chemical and mechanical processes in the recycling of composite materials and high-alloy metals
- Optimizing reverse logistics in the naval supply chain to maximize circularity
- Integrated management
- Implementation of Key Performance Indicators (KPIs) to measure the efficiency of recycling and circularity in shipyards and dismantling areas
- Predictive models and process simulation for efficient and sustainable ship dismantling planning
- Economic and financial considerations in ship recycling projects: cost-benefit analysis and return on investment
- Circular economy case studies in state-of-the-art shipyards: best practices and lessons learned
- Innovation in ship design for the circular economy: applications of reusable and modular materials
- Challenges and opportunities for digitalization and traceability in ship recycling using IoT and blockchain technologies
- Fundamentals of the circular economy applied to the shipbuilding industry: principles, business models, and product and material life cycle
- Emerging technologies in shipbuilding waste management: advanced separation, automated sorting, and recovery processes
- Recyclable and biodegradable materials in shipbuilding and repair: innovations in composites, alloys, and sustainable coatings
- Intelligent monitoring and control systems for waste traceability and auditing on board and in shipyards
- Advanced design-for-recycling (DfR) methodologies in ships: technical, regulatory, and durability criteria
- Integration of digitalization and digital twins in the sustainable management of the shipbuilding life cycle
- Innovative processes for the decontamination and environmentally friendly dismantling of ships: chemical, physical, and biotechnological technologies
- Implementation of circular economy systems in Shipyards: Operations, Reverse Logistics, and Supply Chain Management
International regulations and specific certifications for safe and sustainable recycling in the shipbuilding industry: IMO conventions, EU Ship Recycling Regulation, and others
Case studies and global best practices in technological innovation for circularity in the shipbuilding sector, with environmental and economic impact analysis
- Introduction to Naval Dismantling: Key Concepts, Ship Types, and Structural Life Cycle
- Advanced Decontamination Techniques: Identification and Management of Hazardous Waste (Asbestos, Hydrocarbons, Heavy Metals, and Toxic Paints)
- Physical and Chemical Decontamination Processes: Degreasing, Neutralization, Separation, and In-Situ Treatment
- In-Situ Contamination Diagnosis: Use of NDT (Non-Destructive Testing) Technologies for Environmental Assessment
- Material Traceability: Intelligent Systems for Tracking, Recording, and Digital Traceability from Ship to Recycling Plant
- International and National Regulations for Material and Waste Management in Naval Dismantling (Hong Kong Convention, MARPOL, ADN)
- Segregation and Classification Methodologies of
- Materials: Identification, Separation, and Preparation for Valorization
- Valorization of Ferrous and Non-Ferrous Metals: Recovery, Smelting, and Recycling Processes Applied to the Naval Sector
- Recovery of Reusable Components: Electromechanical Equipment, Pipes, Valves, and Propulsion Systems
- Application of Clean Technologies in Recovery and Recycling: Automation, Robotics, and Safe Handling Systems
- Comprehensive Management of Generated Waste: Treatment of Wastewater, Sludge, and Solid Waste from Decontamination
- Development of Environmental Decontamination Plans According to External Audit and Control Standards
- Environmental Certification and Legal Traceability: Environmental Certification Models and Post-Dismantling Declaration of Conformity
- Implementation of BIM and Blockchain Digital Systems for Documentation and Certification Tracking
- Case Studies and Analysis Comparative analysis of leading naval recycling plants in Europe and Asia, best practices, and environmental benchmarking
Environmental and socioeconomic impact assessment of decontamination and recovery in port communities
Circular economy models applied to naval dismantling: integration, profitability, and sustainability
Future challenges and technological trends in green and responsible naval dismantling
- Fundamentals of Circularity in the Shipbuilding Industry: Circular Economy Concepts Applied to Materials and Processes
- Characterization and Advanced Selection of Recyclable Materials: Technical and Chemical Analysis of Metals, Composites, and Polymers Used in Ships
- Optimization of the Sustainable Supply Chain: Methodologies to Reduce Carbon Footprint and Minimize Waste from Procurement to Final Delivery
- Design for Dismantling and Recycling: Engineering Strategies to Maximize the Reuse and Recovery of Naval Components
- Integrated Logistics Systems for Naval Circularity: Use of IoT, Blockchain, and Big Data Technologies for Traceability and Environmental Auditing
- Advanced Inventory and Material Storage Management: Techniques for the Efficient and Sustainable Control of Stocks and Waste
- Predictive Demand Models and Logistics Optimization Applied to Material Reuse in Shipyards
- International Standards and Certifications for Sustainable Management in The shipbuilding industry: compliance with MARPOL, BASC, and related ISO standards
Life cycle assessment (LCA) and environmental impact analysis for the selection and logistics of recyclable materials
Case studies and benchmarking in naval circularity projects: successful implementation of material optimization systems and sustainable logistics in commercial and military fleets
Innovative Strategies for Circular Management and Sustainable Recycling in the Shipbuilding Industry
- Advanced principles of circular economy applied to the shipbuilding industry: key concepts, product life cycle, and design principles for dismantling and reuse.
- Sustainable materials and eco-design in shipbuilding: selection, properties, and environmental impact assessment of recyclable and biodegradable materials used in shipbuilding and repair.
- Innovations in recycling technologies: mechanical, chemical, and biotechnological processes for the treatment and recovery of ship waste, including separation, decontamination, and reprocessing techniques.
- Management of hazardous and polluting waste: MARPOL international regulations, protocols for handling and mitigating environmental risks in shipyards and during the end of a ship’s life.
- Logistics optimization strategies for circular management: integration of smart systems and digital traceability using blockchain and IoT for the efficient tracking of recycled materials and components.
- International certifications and standards applied to marine circularity: ISO 14001, ISO 50001, EPDs (Environmental Product Declarations) and their influence on the sector’s competitiveness and sustainability.
- Economic and financial models for marine recycling projects: cost-benefit analysis, green financing, tax incentives, and evaluation of the social and environmental return on investment of circular products.
- Integration of renewable energy and energy efficiency in marine recycling and manufacturing processes: implementation of clean energy systems and reduction of the carbon footprint.
- Organizational change management and corporate culture for the transition to circularity: skills development, sustainable leadership, and effective internal and external communication.
- Case studies and success stories in circular marine recycling: detailed analysis of global examples, lessons learned, and application of replicable models at the local and international levels.
- Fundamentals of the circular economy applied to the shipbuilding industry: principles, product life cycle, and closing loops
- Innovations in sustainable materials: biopolymers, recycled composites, and eco-efficient alloys
- Design for disassembly and repairability: strategies to maximize reuse and recycling in naval structures
- Advanced technologies for waste separation and classification: sensors, automation, and applied robotics
- Integrated systems for the management of solid, liquid, and hazardous waste in shipyards and vessels
- Predictive models and simulation for optimizing material flow and minimizing waste
- International standards and environmental certifications related to circularity and recycling in the shipbuilding industry
- Collaborative economy strategies: shared reuse and reverse logistics in supply chains naval
Case studies: Successful implementation of sustainable technologies in waste management in advanced naval sectors
Future perspectives: Digitalization, artificial intelligence, and blockchain for traceability and transparency in recycling operations
- Fundamentals of Circularity in the Shipbuilding Industry: Principles, Objectives, and International Regulatory Framework
- Advanced Life Cycle Assessment (LCA) Applied to Naval Structures: Methodologies, Specialized Software, and Environmental Impact Analysis
- Selection and Characterization of Recyclable and Sustainable Materials for Naval Construction and Maintenance
- Design for Disassembly and Repairability: Strategies to Maximize the Reuse and Recovery of Structural Components
- Emerging Technologies in Naval Recycling: Mechanical, Chemical, and Biotechnological Processes for the Valorization of Metallic and Composite Waste
- Comprehensive Optimization of Logistics Processes for the Recovery and Transport of Post-Consumer Materials in Shipyards and Ports
- Application of Digital Models and Digital Twins for Monitoring and Predicting Structural Wear and Recyclability
- Case Study: Recovery of Aluminum and Naval Steel with High-Efficiency, Low-Impact Techniques
Energy
Regulations and certifications related to circularity in shipbuilding and shipbreaking: compliance, audits, and reporting
Development of strategic plans for integrating circularity into the naval supply chain, including industrial alliances and the collaborative economy
- Fundamentals of the Circular Economy applied to the Naval Industry: principles, benefits, and specific challenges in the sector
- Advanced technologies for the automated identification and classification of naval waste: artificial intelligence, computer vision, and IoT sensors
- Design for disassembly and recycling: strategies to maximize the reuse of materials in naval construction and maintenance
- Innovations in the treatment and recovery processes of hazardous and non-hazardous waste generated in shipyards and offshore platforms
- Implementation of integrated sustainable waste management systems: life cycle models and environmental impact analysis
- Advanced protocols for the management of solid and liquid waste on merchant and military vessels: international regulations and best practices
- Recovery and recycling systems for metals and composite materials used in naval structures: state-of-the-art metallurgical and chemical techniques
- Logistics optimization and traceability in the circular naval value chain using blockchain and Big Data technologies
Environmental risk assessment and mitigation in naval waste management: modeling and simulation tools
Training and awareness-raising for naval personnel on sustainable practices and circularity: pedagogical strategies and organizational culture
- Fundamentals and evolution of the circular economy applied to the shipbuilding industry: principles, challenges, and opportunities in the maritime context
- Sustainable ship design: criteria for modularity, disassembly, and selection of recyclable materials
- Life cycle assessment and diagnosis of vessels: LCA tools and specific environmental impact analysis for naval structures and systems
- Advanced models for integrated onboard waste management: segregation, secure storage, preliminary treatment, and compliance with international regulations (MARPOL, Basel Convention)
- Recycling of naval structural materials: innovative techniques for the efficient recovery of steel, aluminum, composites, and reinforced composite materials
- Management of hazardous waste and pollutants: handling, treatment, and disposal protocols in certified shipyards and dismantling facilities
- Implementation of digital systems for traceability and control of recyclable material and waste flows onboard and in areas Maintenance
Integration of renewable energies and clean technologies for naval recycling processes: energy efficiency and carbon footprint reduction
International and national regulatory framework on naval recycling: compliance, certifications, and specialized environmental audits
Real-world cases and flagship projects of circular naval recycling: critical analysis and lessons learned for continuous improvement
Development of a strategic plan for the implementation of circular management systems in fleets: economic analysis, logistics, human resources, and enabling technologies
Advanced methodologies for monitoring, evaluating, and reporting circularity and efficiency indicators in materials management in ships and shipyards
Final integrative project: design and proposal of a comprehensive and adaptable circular management and recycling system for a specific fleet, with sustainability, technical viability, and economic viability as its main pillars
Career prospects
“`html
- Naval Circularity Project Manager: Design and implementation of strategies for waste reduction and resource optimization in the naval industry.
- Naval Circular Economy Consultant: Advising companies in the sector on the adoption of circular business models and compliance with environmental regulations.
- Naval Materials Recycling Specialist: Development of innovative processes for the recovery and reuse of materials from decommissioned vessels.
- Environmental Auditor in the Naval Industry: Assessment of the environmental impact of naval operations and proposal of mitigation measures.
- Sustainability Manager in Shipyards and Shipping Companies: Implementation of policies and programs for reducing the carbon footprint and promoting sustainable practices.
- Naval Recycling Technologies Researcher: Development of New technologies for the treatment and recovery of naval waste.
- Hazardous Waste Management Technician on Ships: Supervision of the proper management and disposal of hazardous waste generated on board ships.
- Marine Environmental Regulations Expert: Advising on compliance with national and international legislation regarding marine environmental protection.
“`
Entry requirements
Academic/professional profile:
Bachelor’s degree in Nautical Science/Maritime Transport, Naval/Marine Engineering or a related qualification; or proven professional experience on the bridge/in operations.
Language proficiency:
Functional Maritime English (SMCP) recommended for simulations and technical materials.
Documentation:
Updated CV, copy of qualification or seaman’s book, national ID/passport, motivation letter.
Technical requirements (for online):
Device with camera/microphone, stable internet connection, monitor ≥ 24” recommended for ECDIS/Radar-ARPA.
Admissions process and dates
Online
application
(form + documents).
Academic review and interview
Admissions decision
Admissions decision
(+ scholarship offer if applicable).
Place reservation
(deposit) and enrolment.
Induction
(access to the virtual campus, calendars, simulator guides).
Scholarships and financial support
- Mastery of the Circular Economy: Learn to implement innovative strategies for resource optimization and waste reduction in the naval sector.
- Expertise in Naval Recycling: Acquire specialized knowledge in the most advanced recycling techniques and their application in vessel dismantling.
- Sustainability and Regulations: Delve into environmental regulations and best practices for a more sustainable and responsible naval sector.
- Innovation and Development: Promote research and development of new technologies for circularity in the naval industry.
- Leadership in the Sector: Prepare to lead the transition to a circular model in shipbuilding companies and related entities.
Testimonials
This master’s program provided me with the tools and knowledge necessary to lead a sustainable decommissioning project for a cargo ship. By applying the principles of the circular economy, we achieved a 92% recycling rate, far exceeding industry expectations and minimizing environmental impact. Furthermore, networking with industry professionals during the program was key to establishing collaborations that ensured the project’s economic viability.
During my Master’s in Sustainability and Blue Innovation, I developed a business model for a regenerative aquaculture company that integrated seaweed production with fish farming, reducing environmental impact and generating new revenue streams. This project, praised for its viability and innovation, secured me a position as a sustainability consultant for a major multinational corporation in the sector.
This Master’s program provided me with the tools and knowledge necessary to lead the sustainable dismantling project of a large vessel. We achieved an 80% reduction in waste sent to landfill, exceeding the company’s expectations and positioning it as a leader in circular management within the naval sector.
This master’s degree provided me with the tools and knowledge necessary to lead the sustainable dismantling project of a large vessel, reducing waste generation by 30% and increasing material recovery by 45% compared to traditional methods. Thanks to the training I received, I was able to optimize the process, minimizing the environmental impact and generating significant cost savings for the company.
Frequently asked questions
Sustainable and circular management of materials and waste in the shipbuilding industry, including ship dismantling, recycling and reuse.
Yes. The itinerary includes ECDIS/Radar-ARPA/BRM with harbor, ocean, fog, storm, and SAR scenarios.
Online with live sessions; hybrid option for simulator/practical placements through agreements.
Naval sector and industries related to recycling and the circular economy.
Recommended functional SMCP. We offer support materials for standard phraseology.
Yes, with a relevant degree or experience in maritime/port operations. The admissions interview will confirm suitability.
Optional (3–6 months) through Companies & Collaborations and the Alumni Network.
Simulator practice (rubrics), defeat plans, SOPs, checklists, micro-tests and applied TFM.
A degree from Navalis Magna University + operational portfolio (tracks, SOPs, reports and KPIs) useful for audits and employment.
- Fundamentals and evolution of the circular economy applied to the shipbuilding industry: principles, challenges, and opportunities in the maritime context
- Sustainable ship design: criteria for modularity, disassembly, and selection of recyclable materials
- Life cycle assessment and diagnosis of vessels: LCA tools and specific environmental impact analysis for naval structures and systems
- Advanced models for integrated onboard waste management: segregation, secure storage, preliminary treatment, and compliance with international regulations (MARPOL, Basel Convention)
- Recycling of naval structural materials: innovative techniques for the efficient recovery of steel, aluminum, composites, and reinforced composite materials
- Management of hazardous waste and pollutants: handling, treatment, and disposal protocols in certified shipyards and dismantling facilities
- Implementation of digital systems for traceability and control of recyclable material and waste flows onboard and in areas Maintenance
Integration of renewable energies and clean technologies for naval recycling processes: energy efficiency and carbon footprint reduction
International and national regulatory framework on naval recycling: compliance, certifications, and specialized environmental audits
Real-world cases and flagship projects of circular naval recycling: critical analysis and lessons learned for continuous improvement
Development of a strategic plan for the implementation of circular management systems in fleets: economic analysis, logistics, human resources, and enabling technologies
Advanced methodologies for monitoring, evaluating, and reporting circularity and efficiency indicators in materials management in ships and shipyards
Final integrative project: design and proposal of a comprehensive and adaptable circular management and recycling system for a specific fleet, with sustainability, technical viability, and economic viability as its main pillars
Request information
Complete the Application Form.
Attach your CV/degree certificate (if you have it to hand).
Indicate your preferred cohort (January/May/September) and whether you would like the hybrid option with simulator sessions.
An academic advisor will contact you within 24–48 hours to guide you through the admission process, scholarships, and compatibility with your professional schedule.
Faculty
Eng. Tomás Riera
Full Professor
Eng. Tomás Riera
Full Professor
Naval engineer specializing in the selection, integration, and optimization of propulsion systems for yachts, high-speed craft, and service vessels.
Eng. Sofía Marquina
Full Professor
Eng. Sofía Marquina
Full Professor
Materials engineer specializing in marine composites and corrosion protection systems for ships, yachts, and port structures.
Eng. Javier Bañuls
Full Professor
Eng. Javier Bañuls
Full Professor
Naval electrical engineer with over fifteen years of experience in the design, integration, and operation of power and automation systems.
Dr. Nuria Llobregat
Full Professor
Dr. Nuria Llobregat
Full Professor
Specialist in meteorological and operational decision-making for coastal and offshore navigation, integrating wind, wave, and current models.
Dr. Pau Ferrer
Full Professor
Dr. Pau Ferrer
Full Professor
Naval engineer with a PhD in applied hydrodynamics and over a decade of experience designing high-performance hulls and marine structures.
Cap. Javier Abaroa (MCA)
Full Professor
Cap. Javier Abaroa (MCA)
Full Professor
MCA-certified captain with command of ocean-going vessels, specializing in advanced maneuvering, navigation management, and bridge safety.