Master’s Degree in Offshore Wind Energy
Why this master’s programme?
The Master in Offshore Wind Energy
This program provides you with the skills and knowledge necessary to lead the renewable energy revolution in the offshore sector. Learn to design, build, operate, and maintain offshore wind farms, from wind resource assessment to project management and decommissioning. Master the latest technologies in offshore wind turbines, foundations, submarine cables, and marine substations. This program prepares you for a promising future in a constantly growing sector.
Differentiating Advantages
- Practical Approach: Real-world case studies, simulations, and technical visits to offshore installations.
- Expert Faculty: Leading professionals from the offshore wind industry and renowned academics.
- Networking: Opportunities to connect with companies and industry experts.
- Skills Development: Project management, financial analysis, risk assessment, and communication.
- Professional Certification: Earn an internationally recognized qualification and boost your career prospects.
- Modality: Online
- Level: Masters
- Hours: 1600 H
- Start date: 25-04-2026
Availability: 1 in stock
Who is it aimed at?
- Engineers, architects, and technicians seeking to specialize in the marine renewable energy sector.
- Energy professionals wishing to expand their knowledge and skills in offshore wind technology.
- Project managers and consultants interested in the planning, development, and operation of offshore wind farms.
- Science and engineering graduates aspiring to a professional career in the field of offshore wind energy.
- Researchers and academics wishing to delve deeper into the technical, economic, and environmental aspects of offshore wind energy.
Flexibility and specialization
 Adapted for active professionals: online format with live classes, 24/7 access to multimedia resources, and market-oriented practical projects labor.
Objectives and skills
Managing offshore wind projects:
“Planning the entire logistics process, from component manufacturing to installation and maintenance, optimizing resources and minimizing operational and environmental risks.”
Assessing the environmental impact of offshore wind farms:
“Identify and quantify the effects on marine fauna (birds, mammals, fish) and benthic habitats, considering underwater noise, seabed disturbance and physical barriers.”
Optimizing the performance of offshore wind turbines:
“Implement predictive and corrective monitoring strategies based on data analysis to maximize energy production and minimize downtime.”
Design and maintain marine electrical infrastructure:
“Implement electrical safety regulations and emergency procedures adapted to the marine environment, ensuring continuous operation and minimizing risks.”
Develop financial models for investment in offshore wind energy:
“Build dynamic spreadsheets, integrating macroeconomic variables, construction costs, operation, maintenance and sector-specific risks, allowing scenario simulation and sensitivity analysis for decision-making.”
Leading multidisciplinary teams in offshore wind energy projects:
Manage effective communication and conflict resolution between different disciplines to ensure the achievement of common goals and the successful delivery of the project.
Study plan – Modules
- Fundamentals of offshore wind farm design: wind resource analysis, offshore wind characterization, and energy potential assessment
- Site selection: geotechnical criteria, bathymetry, environmental analysis, and regulatory restrictions in marine protected areas
- Aerodynamic and structural modeling of wind turbines: CFD simulation, dynamic loads, and fatigue resistance
- Wind turbine configuration and layout: spatial optimization to minimize wake losses and maximize energy production
- Design of subsea electrical systems: transformers, interconnection cables, grid connectivity, and loss management
- Foundation engineering: types (monopiles, jackets, gravel foundations), selection based on geotechnical characteristics and dynamic loads
- Analysis and mitigation of environmental impacts: ecosystem studies Marine, underwater noise, and protective measures during construction and operation
- Monitoring and operation: SCADA systems, remote sensors, predictive maintenance, and data analysis to optimize performance
- Advanced maintenance strategies: condition-based maintenance, shutdown planning, and logistics management of offshore materials and human resources
- Safety protocols and risk management: inherent risk assessment, contingency plans, and regulatory compliance in maritime operations
- Economic and financial analysis: CAPEX and OPEX cost assessment, feasibility studies, and contract management in the offshore wind industry
- Technological innovations and trends: integration of floating technologies, digitalization, and automation of offshore wind farms
- Fundamentals of offshore wind energy: resource characteristics, variability, and offshore measurement techniques
- Advanced aerodynamic design of offshore wind turbines: blade profiles, angle of attack optimization, and reduction of wake turbulence losses
- Innovative materials and structures: advanced composites, resistance to marine corrosion, and manufacturing techniques for high durability
- Intelligent control and monitoring systems: adaptive algorithms for maximizing energy production and mitigating dynamic loads
- Integration of weather forecasting technologies and CFD modeling for real-time optimization of wind farm operation
- Design of support systems and foundations: monopiles, jackets, floating foundations, and adaptations according to geotechnical and meteo-oceanographic conditions
- Optimization of operational efficiency: Advanced predictive maintenance strategies based on condition and the use of digital twins
Innovations in energy transmission and storage: offshore power converters, HVDC links, and storage solutions coupled to offshore wind farms
Environmental impact and technical regulations: life cycle assessment, mitigation of effects on marine ecosystems, and compliance with international standards
Analysis of case studies and future trends in the development of offshore wind turbines: technical, economic, and technological challenges toward global decarbonization
- Introduction to offshore wind energy: fundamentals, potential, and global market
- Feasibility analysis methodologies: technical, economic, and financial evaluation for offshore projects
- Wind resource parameters: measurement, modeling, and estimation of offshore resources
- Site evaluation: bathymetry, marine geology, accessibility, and grid connection
- Environmental impact assessments (EIAs): international, regional, and local regulations applicable to offshore wind projects
- Environmental inventories and characterization: marine biodiversity, sensitive habitats, and protected species
- Predictive impact models: underwater noise, hydrodynamic alterations, and effects on marine fauna
- Environmental risk assessment: pollution, sediment disturbance, and potential spills or accidental contamination
- Measures of Mitigation and environmental management plans: designing strategies to minimize negative impacts during construction and operation
Citizen participation and public consultation: social integration and conflict management in offshore projects
Integrated economic feasibility studies: cost-benefit analysis considering environmental and social aspects
Environmental regulations and permits: procedures for obtaining licenses and regulatory compliance
Advanced software and tools for environmental analysis and technical feasibility
Case studies and field studies: detailed analysis of real offshore wind projects with a focus on comprehensive assessment
Trends and challenges in offshore environmental assessment: climate change, ecosystem preservation, and sustainable development
- Fundamentals of Foundation Engineering in Offshore Wind Energy: Types of Fixed Foundations (Monopiles, Jackets, Gravity) and Applied Geotechnical Principles
- Floating Systems for Offshore Wind Turbines: Spar Platforms, Semi-Submersibles, and Tensioned Barges; Selection criteria and conceptual design
Advanced hydrodynamic modeling: CFD analysis, wave simulations, ocean currents, and their interaction with wind turbines
Structural analysis and seismic evaluation: international standards, nonlinear dynamic analysis, fatigue, and behavior under extreme loads in marine environments
Offshore anchoring solutions and technologies: static and dynamic anchors, load capacity studies, installation, and monitoring on the seabed
Strategies and specialized equipment for offshore installation: floating cranes, jack-ups, offshore logistics, and operational safety in harsh environments
Advanced technical inspection of foundations and floating systems: non-destructive techniques, smart sensors, and continuous remote monitoring
Structural integrity and predictive maintenance based on data analysis, digital twins, and artificial intelligence algorithms to anticipate failures
Lifespan optimization and cost analysis Totals: economic modeling, life cycle assessment (LCCA), strategic planning, and OPEX and CAPEX reduction.
Case studies and real-world project analyses: design, technical challenges, innovative solutions, and lessons learned in commercial-scale offshore wind farms.
- Fundamentals of Offshore Wind Energy Integration with Electrical Grids: Characteristics and Challenges of Offshore Interconnection
- Offshore Electrical Grid Topologies: Radial Systems, Rings, and Smart Grids in Offshore Wind Farms
- Advanced Study of Power Converters and HVDC and HVAC Technology for Connecting Offshore Wind Farms to Onshore Grids
- Dynamic Management of Wind Power Generation: Impact of Variability and Predictability on Electrical Grid Stability
- Energy Storage in Offshore Wind Farms: Emerging Technologies of Batteries, Compressed Air Systems, Green Hydrogen, and Supercapacitors
- Advanced Control and Optimization Strategies for Integrating Energy Storage with Variable Wind Power Generation
- Real-Time Modeling and Simulation for Intelligent Electricity Supply Management in Offshore Wind Farms
- Communication protocols and SCADA (Supervisory Control and Data Acquisition) systems applied to the monitoring and remote control of offshore wind farms
- Analysis of stability, power quality, and reactive power management in offshore grids with high wind penetration
- Regulations, standards, and strategies for the efficient and secure integration of offshore wind farms into electricity markets
- Case studies: practical implementation of storage systems and smart grids in leading offshore projects globally
- Current challenges and future trends in smart grid and storage management for offshore wind farms, including the role of artificial intelligence and machine learning
- Introduction to the conceptual design of offshore wind farms: technical, environmental, and economic criteria
- Site selection and analysis: wind resource assessment, bathymetry, marine geology, and legal constraints
- Advanced structural engineering of offshore wind turbines: tower design, fixed and floating foundations, wind and marine dynamics
- Computational modeling and CFD (Computational Fluid Dynamics) simulation applied to wind-water interaction and turbine wakes
- Optimization of wind farm layout: strategies to minimize interference, maximize production, and facilitate maintenance
- Integration of electrical systems in offshore applications: substation design, submarine cables, and energy evacuation management
- Innovative materials and technologies for corrosion and marine fatigue resistance in critical components
- Installation planning and logistics: transportation, specialized marine cranes and resource management in adverse offshore conditions
Predictive and preventive maintenance in marine environments: structural monitoring techniques, vibration control, and real-time data analysis
Automation and use of drones and underwater robots for inspection and repair of wind turbines and foundations
Advanced risk management strategies: failure assessment, contingency plans, and industrial and environmental safety protocols
International standards and certifications applicable to the design, construction, and operation of offshore wind farms
Environmental impact and mitigation strategies: assessment of marine fauna, underwater noise, and ecosystem sustainability
Economic and financial models of offshore projects: analysis of return on investment, operating costs, and green financing
Case studies and flagship projects: technical analysis and lessons learned from offshore installations worldwide
- Fundamentals of offshore wind energy: physical principles, atmospheric dynamics, and wind resource behavior in ocean environments
- Innovations in offshore wind turbines: advanced aerodynamic design, composite materials, and next-generation blade technologies
- Structural analysis and comprehensive design of towers and foundations: monopile technologies, jackets, gravity bases, and floating solutions
- Offshore electrical and transmission systems: converters, submerged transformers, submarine cables, and marine electrical substations
- Digital integration and automation: IoT platforms, SCADA, and digital twins for monitoring and predictive maintenance in offshore wind farms
- Advanced modeling and simulation: CFD, FEA, and multiscale analysis for design optimization and dynamic load prediction
- Offshore installation and construction techniques: specialized cranes, maritime logistics, and innovative assembly methods Modular
Advanced offshore project management: comprehensive planning, specific risk assessment, optimized costs and schedules for offshore wind farms
International standards and technical certifications: compliance with IEC and DNV-GL standards, and environmental and safety regulations
Maintenance and operation strategies: access techniques, remote inspection, repair under extreme conditions, and technological repowering management
Environmental impact and sustainability: life cycle assessment, mitigation of impact on marine ecosystems, and responsible resource management
Case studies and future trends: analysis of pioneering global projects, disruptive innovation, and technological scenarios for the next decade in offshore wind energy
- Fundamentals of Marine Dynamics: Physical properties of the marine environment, fluid-structure interaction, and numerical modeling of waves and currents in offshore environments
- Advanced Aerodynamic Theory: Principles of aerodynamics applied to wind turbine rotors, airfoils, and three-dimensional flow analysis
- Computational Fluid Dynamics (CFD) models for simulating marine and airflows, calibration, and validation with experimental data
- Aero-Marine Dynamic Interaction: Combined study of the behavior of wind turbines under variable hydrodynamic and aerodynamic loads
- Load Analysis of Offshore Structures: Estimation of dynamic stresses, fatigue, and behavior under extreme wind and wave conditions
- Advanced Turbine Control: Adaptive and predictive control strategies based on dynamic models for performance optimization and load reduction
- Integration of sensors and real-time monitoring systems for Dynamic data acquisition and feedback in control systems
Multi-objective simulation and optimization: balancing energy efficiency, structural stability, and environmental impact reduction
Applications of artificial intelligence and machine learning in predicting dynamic behavior and optimizing operating parameters
Case studies and analyses of real offshore wind farm projects with an emphasis on the application of advanced modeling for strategic decision-making
- Fundamental principles of offshore wind energy: wind physics, offshore wind resources, and energy potential assessment
- Advanced aerodynamic design of offshore wind turbines: blade profile, aerodynamic interaction, and performance optimization
- Emerging technologies in offshore wind turbines: floating vs. Fixed structures, innovations in materials, and intelligent control systems
Structural and geotechnical engineering for offshore foundations: design of monopiles, jackets, gravity bases, and complex marine soils
Dynamic analysis and numerical models for offshore wind farms: load simulation, behavior under waves, wind, and currents
Advanced integration and optimization strategies for offshore wind farms: layout, wake effect, loss management, and maximization of energy efficiency
Electrical and transmission systems in offshore wind: converters, transformers, HVDC submarine lines, and power quality management
Methodologies for environmental assessment and sustainability: impact on marine ecosystems, biodiversity, underwater noise, and mitigation of environmental risks
International regulations and specific certifications for offshore wind projects: technical standards, industrial safety, and regulatory compliance
Maintenance innovations Predictive and remote monitoring: structural monitoring techniques, drones, artificial intelligence, and big data applied to offshore operations
Economic models and financial strategies for offshore wind projects: cost analysis, profitability, incentives, and long-term viability
Impact of the energy transition and global policies on the development of offshore wind farms: trends, regulation, and future energy markets
- Conceptual framework and justification of the final project: Importance of technological integration in offshore wind farms
- Advanced analysis of disruptive technologies applied to offshore wind energy: Smart sensors, advanced materials, and energy storage systems
- Fundamentals and applicability of artificial intelligence (AI) for the monitoring, prediction, and operational optimization of offshore wind farms
- Advanced digital modeling and simulation: Digital twins for real-time monitoring and predictive maintenance
- Multi-criteria optimization using machine learning algorithms to maximize efficiency, minimize operating costs, and reduce environmental impact
- Integrated sustainability strategies: Life cycle assessment (LCA), carbon footprint reduction, and marine biodiversity protection
- Cyber-physical systems architecture: Interoperability, cybersecurity, and communication protocols for intelligent systems on offshore platforms
- Design and development of prototypes and innovative solutions: practical application of agile methodologies in offshore wind engineering projects
Methodology for the collection, processing, and analysis of large volumes of data (Big Data) generated in offshore wind installations
Strategic planning for technological integration: change management, technical and regulatory barriers, and economic viability
Environmental and social impact assessment: advanced tools for risk analysis and regulatory compliance
Study of real-world cases and pilot projects with the integration of AI and disruptive technologies in offshore wind farms
Development of a comprehensive final project: design, simulation, and proposal of an innovative solution for the sustainable optimization of an offshore wind farm
Presentation, technical defense, and scientific justification of the work: skills for communicating complex projects to multidisciplinary audiences
Future perspectives and emerging trends in offshore wind energy: continuous innovation and the role of AI in the global energy transition
Career prospects
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- Offshore Wind Design Engineer: Design, development, and optimization of offshore wind turbines and wind farms.
- Offshore Wind Project Manager: Planning, execution, and monitoring of offshore wind farm construction and installation projects.
- Operation and Maintenance Specialist: Supervision and maintenance of offshore wind turbines, including troubleshooting and performance optimization.
- Offshore Wind Energy Consultant: Technical and strategic advice on offshore wind energy projects, from the planning phase to operation.
- Offshore Wind Energy Researcher: Development of new technologies and solutions for more efficient and sustainable offshore wind energy generation.
- Marine Renewable Energy Technician: Installation, repair, and maintenance of equipment in wind farms Offshore wind farms, both onshore and offshore.
- Safety and Environment Specialist in Offshore Wind Farms: Implementation and supervision of safety and environmental protection measures in offshore wind energy projects.
- Economic Feasibility Analyst for Offshore Wind Projects: Evaluation of the profitability and risk of investment projects in offshore wind energy.
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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
- Design and Operation: Master the techniques of offshore wind engineering, from planning to maintenance.
- Advanced Technologies: Delve into offshore wind turbines, marine foundations, and grid connection systems.
- Regulatory and Environmental Framework: Understand the legislation, environmental impact studies, and sustainability of offshore wind farms.
- Project Management: Acquire the skills to lead and manage offshore wind energy projects from inception to End.
- Simulation and Modeling: Use specialized software tools to optimize the performance and efficiency of wind farms.
Testimonials
This master’s degree provided me with the tools and knowledge necessary to lead the development of an innovative floating anchoring system for offshore wind turbines. After defending my final project, I received offers from several companies in the sector, and I am currently working on a pioneering offshore wind energy project in Scotland.
During my Master’s in Energy & Offshore, I exceeded my expectations by designing an innovative wave energy storage system that increased conversion efficiency by 15%, validated through advanced simulations. This project secured me a position as a project engineer at a leading company in the sector.
After completing the Master’s in Offshore Wind Energy, I secured a position as a project engineer at a leading company in the sector. I lead the development of a large-scale offshore wind farm, directly applying the knowledge I gained in the Master’s program regarding the design, installation, and operation of offshore turbines and substations. The program provided me with the technical skills and strategic vision necessary to excel in this rapidly expanding field.
This master’s degree provided me with the tools and knowledge necessary to lead the development of an innovative floating anchoring system for offshore wind turbines. Thanks to my specialization in hydrodynamics and marine structures, I was able to optimize the design, reducing installation costs by 15% and increasing the wind farm’s energy efficiency by 8%. This system is currently being implemented in a pilot project in the North Sea, with prospects for global expansion.
Frequently asked questions
Offshore wind energy.
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.
Offshore wind energy sector.
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.
- Conceptual framework and justification of the final project: Importance of technological integration in offshore wind farms
- Advanced analysis of disruptive technologies applied to offshore wind energy: Smart sensors, advanced materials, and energy storage systems
- Fundamentals and applicability of artificial intelligence (AI) for the monitoring, prediction, and operational optimization of offshore wind farms
- Advanced digital modeling and simulation: Digital twins for real-time monitoring and predictive maintenance
- Multi-criteria optimization using machine learning algorithms to maximize efficiency, minimize operating costs, and reduce environmental impact
- Integrated sustainability strategies: Life cycle assessment (LCA), carbon footprint reduction, and marine biodiversity protection
- Cyber-physical systems architecture: Interoperability, cybersecurity, and communication protocols for intelligent systems on offshore platforms
- Design and development of prototypes and innovative solutions: practical application of agile methodologies in offshore wind engineering projects
Methodology for the collection, processing, and analysis of large volumes of data (Big Data) generated in offshore wind installations
Strategic planning for technological integration: change management, technical and regulatory barriers, and economic viability
Environmental and social impact assessment: advanced tools for risk analysis and regulatory compliance
Study of real-world cases and pilot projects with the integration of AI and disruptive technologies in offshore wind farms
Development of a comprehensive final project: design, simulation, and proposal of an innovative solution for the sustainable optimization of an offshore wind farm
Presentation, technical defense, and scientific justification of the work: skills for communicating complex projects to multidisciplinary audiences
Future perspectives and emerging trends in offshore wind energy: continuous innovation and the role of AI in the global energy transition
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. SofĂa Marquina
Full Professor
Eng. SofĂa 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.