Master’s Degree in Offshore and Marine Wind Energy
Why this master’s programme?
The Master’s in Marine and Offshore Wind Energy
Prepares you to lead the energy revolution. Learn to design, build, and manage offshore wind farms, from foundation to grid connection. Master the most advanced technologies, including next-generation wind turbines, HVDC transmission systems, and predictive maintenance strategies. This program provides you with a comprehensive overview of the sector, covering technical, economic, and environmental aspects.
Differentiating Advantages
- Advanced Simulations: Optimize the performance of wind farms using state-of-the-art software.
- Real-World Case Studies: Analyze successful projects and learn from industry challenges.
- Collaboration with Experts: Interact with leading professionals in the offshore wind sector.
- 360° View: Understand the environmental and social impact of offshore wind energy.
- International Focus: Acquire knowledge applicable to global markets.
- Modality: Online
- Level: Masters
- Hours: 1600 H
- Start date:
Availability: 1 in stock
Who is it aimed at?
- Engineers with experience in renewable energies seeking to specialize in the offshore wind sector.
- Engineering graduates (mechanical, electrical, naval, civil) who want a professional boost in the offshore industry.
- Energy sector professionals interested in learning about the latest technologies and trends in the offshore wind market.
- Project managers and consultants who aspire to lead and optimize offshore wind energy projects.
- Researchers and developers seeking to deepen their technical and scientific knowledge of offshore wind energy.
Academic Flexibility Adapted for active professionals: online format, recorded classes, tutoring personalized and access to a virtual platform 24/7.
Objectives and skills
Managing offshore wind projects:
“Plan and execute safe lifting maneuvers of components with offshore cranes, considering environmental conditions and vessel limitations.”
Assess the environmental impact of offshore wind farms:
“Identify and quantify the effects on marine fauna, benthic habitats and water quality, considering the construction, operation and decommissioning phases, and propose effective mitigation measures.”
Designing and optimizing offshore wind turbines:
“Select materials and designs that maximize energy efficiency and minimize environmental impact, considering marine corrosion and service life.”
Oversee the installation and maintenance of offshore infrastructure:
“Ensure regulatory compliance and safety standards, optimizing operational efficiency through proactive resource management and technical problem resolution.”
Develop financial and feasibility models for offshore projects:
“To build projections of income, operating costs and cash flows, considering specific risks of the offshore environment and regulatory regulations, to assess profitability and return on investment.”
Leading multidisciplinary teams in offshore wind projects:
Promote effective communication and conflict resolution, establishing clear roles and fostering a collaborative and trusting environment to optimize team performance and achieve project goals.
Study plan – Modules
- Fundamentals of aerodynamic design for offshore wind turbines: airfoils, lift and drag coefficients, and advanced CFD modeling
- Innovations in rotor geometry and configuration: high-efficiency blade design and adaptive pitch systems to maximize energy capture in marine environments
- Advanced materials and composites for offshore blades: carbon, glass, epoxy resins, and advances in nanotechnology to improve strength, durability, and reduce weight
- Structural design and fatigue analysis: structural integrity criteria under dynamic loads, marine corrosion, and extreme wave and wind conditions
- Integration of storage systems and intelligent control: performance optimization through artificial intelligence and real-time weather forecasting
- Emerging technologies in towers and foundations: modular design, use of hybrid materials, and strategies to minimize environmental footprint
- Advanced offshore installation techniques: transportation methods, floating cranes, Modular assembly and stability assurance during installation
Multi-objective simulation and optimization: digital tools for evaluating costs, energy performance, and environmental impact
Predictive maintenance and structural monitoring: smart sensors and data analysis to extend service life and reduce downtime
International regulations, certifications, and technical standards applied to the design and installation of offshore wind turbines
- Fundamentals of meteorological modeling in marine environments: atmospheric dynamics, ocean-atmosphere interaction, and temporal and spatial scales
- Advanced techniques for reanalysis and assimilation of satellite and offshore station meteorological data
- Methodologies for the calibration and validation of numerical wind models using in-situ and remote sensing data
- Wind resource assessment: statistical analysis, time series, seasonal variability, and findings relevant to offshore wind farm planning
- Wind structure simulation: vertical profiles, turbulence, wind vane and gusts, and their impact on the technical design of offshore wind turbines
- Physico-mathematical models for short- and medium-term forecasting applied to operational optimization and predictive maintenance
- Specialized tools and software for wind mapping: advanced interpretation of resource maps and wind speed maps and wind power, cryosphere, and coastal effects
Multi-criteria analysis for optimal site selection: environmental, technical, economic, and regulatory criteria for offshore wind farm location
Evaluation of the impact of ocean currents, tides, waves, and bathymetry on resource efficiency and site viability
Simulation of scenarios under different climatic conditions and their integration into predictive models for long-term strategic planning
Spatial optimization of offshore wind farms using artificial intelligence algorithms and machine learning techniques
Design and evaluation of hybrid systems and their integration with other marine renewable energy sources to maximize resource extrapolation
Economic analysis of offshore wind resources: levelized cost of energy (LCOE), sensitivity to meteorological variables, and project financial profitability
Regulatory framework and international policies governing the exploitation of offshore wind resources and their Influence on site evaluation and selection
Case studies and benchmarking of leading global offshore parks: lessons learned and practical application of advanced resource analysis
- Aerodynamic Fundamentals of Offshore Wind Turbine Design: Profile Analysis and Performance in Extreme Marine Environments
- Advanced Materials for Blades and Towers: High-Strength Composites, Manufacturing Techniques, and Durability Against Marine Corrosion
- Innovation in Structural Design: Finite Element Modeling, Topology Optimization, and Fatigue Mitigation Under Cyclic Loads
- Drive and Power Generation Systems: Permanent Magnet Generator Technologies, Power Electronics, and Adaptive Control
- Integration of Smart Sensors and Real-Time Monitoring Systems for Predictive Maintenance and Lifecycle Management
- Aerodynamic Optimization Using Advanced CFD Simulations: Fluid-Structure Interaction and Active Vibration Control
- Offshore Installation Techniques: Transportation Analysis, Specialized Maritime Logistics, and Offshore Assembly Strategies
- Offshore Foundations and Anchorages: Monopile Designs and Jacket Structures and floating solutions for different types of seabed
Environmental impact and international regulations: certifications, acoustic impact studies, and protection of marine ecosystems
Case studies: pioneering global projects, technological innovations, and key lessons for the offshore wind industry
- Regulatory and legal framework for offshore wind projects: applicable national and international legislation, maritime conventions, EU directives, and relevant IMO regulations for offshore installations
- Maritime permits and administrative authorizations: detailed analysis of licensing procedures, environmental impact assessments, and concessions for the use of the public maritime-terrestrial domain
- Integration of grid connection systems: engineering and design of HVAC and HVDC infrastructure for efficient energy transmission from offshore wind farms to onshore grids
- Key contracts and agreements in offshore wind projects: EPC, O&M, PPA contracts, mooring leases, and agreements with port operators and logistics infrastructure providers
- Financing and economic models: project financial structure, risk analysis, public and private funding sources, insurance schemes, and mitigation of financial risks in offshore contexts
- Installation logistics in Offshore: planning and coordination of transport, loading, and assembly of wind turbines; use of specialized vessels and installation technologies under adverse maritime conditions.
Comprehensive environmental management: strategies for monitoring and mitigating impacts on marine biodiversity, waste management, compliance with environmental standards, and post-construction restoration plans.
Project supervision and control: project management tools, KPIs for monitoring time, costs, and quality, and geographic information systems (GIS) for tracking offshore installations.
Offshore safety and risk management: analysis of operational and environmental risks, emergency protocols, contingency plans, and compliance with international occupational safety standards at sea.
Technological innovation in offshore wind project management: incorporation of digitalization, automation, and remote monitoring systems for optimization and efficiency throughout the wind farm’s lifespan.
- Predictive Maintenance Fundamentals: Principles, Benefits, and Application in Offshore Wind Farms
- Drones in Wind Turbine Inspection: Types of Drones, Integrated Sensors (Thermal Cameras, LiDAR, Ultrasound), and Automated Flight Protocols
- Advanced Sensor Systems: Data Acquisition Using Embedded Sensors, Structural Monitoring (Strain Gauges, Accelerometers), and Fault Detection in Blades and Generators
- Offshore Communication Networks: IoT Protocols, Real-Time Transmission, Redundancy, and Robustness in Harsh Marine Environments
- Data Analysis Platforms: Integration of Big Data and Machine Learning for Fault Prediction and Performance Optimization
- Definition and Monitoring of Critical KPIs: Vibration, Temperature, Electrical Currents, and Lubricant Condition
- Predictive Models and Condition-Based Maintenance: Adaptive Algorithms to Anticipate Component Failures
- Digital simulation and digital twins: virtual recreation of wind farms for testing, scenario analysis, and intervention planning
- Integration of drones and advanced sensors into remote maintenance platforms: use cases, operational benefits, and return on investment
- Safety and applicable regulations: compliance with international standards in offshore inspection and maintenance using emerging technologies
- Real-time data management and analysis: software tools, intuitive dashboards, and predictive alerts for rapid decision-making
- Environmental impact and risk reduction: use of non-intrusive technologies that minimize the operational footprint and improve sustainability
- Specialized training and development of technical skills for operators and maintenance technicians using advanced technologies
- Practical case studies: successful implementation of predictive systems in offshore wind farms, results analysis, and lessons learned
- Future trends and technological evolution: artificial intelligence, Advanced robotics, intelligent sensors, and their application in offshore wind energy
Key points
- Innovations in the aerodynamic and structural design of offshore wind turbines: advanced composite materials, floating vs. Fixed and modular systems
- Energy efficiency optimization through computational modeling and CFD simulation: turbulent flow analysis, wake effect, and positioning strategies for offshore wind farms
- Advanced assessment of offshore wind resources: in-situ measurement campaigns, use of marine LIDAR and RADAR, statistical analysis, and long-term stochastic predictions
- International and local regulatory framework for offshore wind development: environmental regulations, maritime permits, coordination with maritime agencies, and maritime space legislation
- Strategic management and economic feasibility analysis: cost-benefit studies, project financing, risk and financial return analysis, and innovative business models in offshore wind energy
- Implementation of advanced predictive maintenance systems: IoT sensors, real-time monitoring, vibration analysis techniques, and artificial intelligence models applied to early fault diagnosis
- Environmental and social impact: environmental impact assessment methodologies (EIA), mitigation of ecological risks, interaction with coastal communities, and project socialization.
Emerging technologies in energy storage integration and maritime smart grids: hybrid solutions, battery storage, and sectoral conversion for offshore grid stability.
Safety protocols and comprehensive management of maritime operations: emergency procedures, safety in offshore installation and maintenance, and training of specialized personnel in the offshore environment.
Case studies and real-world applications: detailed analysis of flagship international projects, lessons learned, and future trends in the development of offshore wind farms.
- Aerodynamic design fundamentals for offshore wind turbines: blade profiles, lift and drag coefficients, geometry optimization for extreme marine conditions
- Advanced materials in the manufacture of offshore wind turbines: carbon fiber composites, high corrosion-resistant metal alloys, nanotechnology applied to coatings and fatigue protection
- Structural and dynamic modeling of offshore wind turbines: static and dynamic load analysis, soil-structure interaction, fatigue simulations, and behavior under variable waves and winds
- Innovative technologies for the installation of offshore wind farms: mooring and anchoring methods, use of specialized vessels, modular assembly, and precision tools for reducing time and costs
- Advanced real-time monitoring and control systems: integration of smart sensors for vibration, stress, humidity, and corrosion; Communication protocols and Big Data for predictive maintenance
Energy and operational optimization through artificial intelligence and machine learning: failure prediction, pitch and yaw optimization, efficient wind resource management in harsh offshore environments
International standards and specific certifications for offshore projects: IEC 61400, DNV-GL, safety and environmental standards applied to design and operation
Advanced predictive maintenance strategies: acoustic and ultrasonic signal analysis, infrared thermography, drones for visual inspection, and underwater robotics for limited access
Environmental impact and sustainability in design and operation: noise mitigation, protection of marine ecosystems, material recycling, and the circular economy in the offshore wind industry
Landmark case studies and pioneering projects: analysis of successes and lessons learned in engineering applied to next-generation offshore wind farms, technological benchmarking, and future perspectives
- Fundamentals and Design of Offshore Electrical Systems: Network Topologies, Converters, and Offshore Wind Farm Configurations
- Submarine Transmission Networks: HVDC and HVAC Cable Types, Insulation, Route Design, and Installation and Maintenance Challenges in Marine Environments
- Integrating Wind Power Generation Systems into the Electrical Grid: Stability Analysis, Power Quality, and Power Flow Control
- Offshore Energy Storage: Current Battery Technologies, Hydrogen Systems, Compressed Air, and Hybrid Solutions for Stabilizing Production and Managing Demand
- Configuration and Management of Offshore Electrical Converter Stations and Substations: Technical Aspects, Materials, and Environmental Considerations
- Resilience Strategies: Detection, Diagnosis, and Response to Failures in Offshore Electrical Systems, Redundancy, and Rapid Recovery Techniques Following Adverse Events
- Impact of extreme weather conditions and ocean phenomena on the operation and maintenance of offshore power grids
- SCADA and Remote Monitoring Systems: Real-time data integration, intelligent control, and operational optimization of offshore wind farms
- Advanced load curve analysis, peak and demand management in interconnected offshore grids
- International regulations and standards applied to the construction, operation, and maintenance of electrical systems in offshore installations, including safety and environmental requirements
- Technological innovation applied to the design of offshore wind turbines: advanced materials, composite structures, and new manufacturing techniques
- Aerodynamic optimization of offshore wind turbine rotors: CFD modeling, active blade control, and reduction of dynamic loads
- Analysis of offshore wind resources: statistical wind assessment, mesoscale meteorological models, and the use of LIDAR and SODAR for precise measurements
- Comprehensive management of offshore wind farms: strategic planning, integration into electrical grids, and economic and financial analysis
- Applicable international regulations and standards: certification, IEC standards, European directives, and environmental permit management
- Predictive maintenance based on IoT technologies and advanced analytics: smart sensors, vibration analysis, thermography, and remote maintenance techniques
- Advanced grid connection systems: submarine cable topologies, power converters, HVDC vs. HVAC and Energy Quality Management
Digital Integration and Use of Digital Twins for Optimized Operation and Maintenance of Offshore Wind Farms
Lifecycle Management Strategies for Offshore Assets: Performance Evaluation, Risk Mitigation, and Sustainable Decommissioning
Environmental Impact and Risk Assessment in Offshore Wind Projects: Biodiversity, Underwater Noise, and Mitigation Measures at Each Project Phase
- Advanced methodology for developing comprehensive offshore wind energy projects: defining objectives, scope, and structure
- Site analysis and selection: wind resource assessment, atmospheric modeling, environmental impact, and geographical constraints
- Conceptual and detailed design of offshore wind turbines: aerodynamics, advanced materials, structuring, and control systems
- Foundations and support structures: monopile, jacket, floating, and adaptive anchoring technologies for offshore platforms
- Optimization of wind farm configuration: layout, spacing, wake effect, and numerical modeling techniques
- Electrical and transmission systems: submarine cable design, offshore substations, and high-voltage grid connection
- Implementation of innovative technologies: real-time monitoring systems, artificial intelligence for predictive maintenance, and marine robotics
- Comprehensive Project Management: Advanced planning, risk management, international regulations, and applicable certifications
- Strategies for the environmental and social integration of the wind farm: Impact mitigation, community engagement, and sustainability
- Economic simulation and evaluation: Financial models, return on investment analysis, operating costs, and long-term maintenance
- Offshore Operations and Maintenance (O&M) planning: Logistics, industrial safety, protocols, and technologies for access and repair
- Innovations in energy storage and hybrid systems: Battery integration, green hydrogen, and grid optimization
- Development of advanced technical reports and documentation for presentation to regulatory bodies and stakeholders
- Case studies and simulations of real-world projects for direct application of knowledge and strategic decision-making
- Defense and oral presentation of the final project before a committee of industry experts offshore wind
Career prospects
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- Design and Development Engineer: Design of offshore wind turbines, support structures, and connection systems.
- Offshore Wind Project Manager: Planning, execution, and control of offshore wind farm projects.
- Operation and Maintenance Specialist: Supervision and management of maintenance for offshore wind turbines and substations.
- Energy Consultant: Advising on offshore wind energy projects, feasibility assessments, and optimization.
- Researcher and Developer: Participation in R&D projects in offshore wind technologies.
- Safety and Environment Technician: Management of occupational and environmental risks in offshore wind farms.
- Control Systems Specialist: Development and implementation of control systems for wind turbines and Wind farms.
- Logistics and Transport Manager: planning and coordination of logistics and transport operations for wind turbine components.
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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
- Specialize in the offshore wind sector: Master the latest technologies and strategies for developing offshore wind farms.
- Comprehensive training: From engineering and project management to regulations and environmental impact.
- Develop key skills: Learn to design, build, and maintain offshore wind farms efficiently and sustainably.
- Extensive career opportunities: Prepare to lead projects in a booming sector with high demand for qualified professionals.
- Strategic networking: Connect with industry experts and leading companies through events and collaborative projects.
Testimonials
The Master’s in Offshore Wind Energy provided me with the tools and knowledge necessary to take a significant leap forward in my career. After completing the program, I was hired by a leading company in the sector as an aerodynamics engineer specializing in offshore turbines, where I lead projects to optimize energy performance in offshore wind farms. The practical training and focus on emerging technologies provided by the Master’s program were key to my success in this role.
During my Master’s degree in Energy and Marine Resources, I developed a predictive model for optimizing the installation of floating offshore wind farms, taking into account meteorological and oceanographic variables. This project, notable for its innovation and applicability, allowed me to obtain a research grant at an internationally renowned center in the sector.
This master’s program provided me with the tools and knowledge necessary to lead a crucial offshore wind farm design and installation project. By applying the principles of aerodynamics, hydrodynamics, and control that I had learned, we optimized energy efficiency by 12%, exceeding the client’s initial expectations. Furthermore, the training in project management and risk analysis was fundamental in mitigating the challenges inherent in this type of project, allowing us to complete it within the established timeframe and budget.
“Applying the knowledge acquired in the Master’s in Offshore and Marine Wind Energy allowed me to lead the design and implementation of an innovative floating foundation system for a 500 MW wind farm, reducing installation costs by 15% and minimizing the environmental impact in an ecologically sensitive area. This achievement resulted in a promotion to Project Director and industry recognition for the project’s technical and economic viability.”
Frequently asked questions
In marine and offshore environments, including coastal waters, the high seas and areas with wind potential.
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.
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.
- Advanced methodology for developing comprehensive offshore wind energy projects: defining objectives, scope, and structure
- Site analysis and selection: wind resource assessment, atmospheric modeling, environmental impact, and geographical constraints
- Conceptual and detailed design of offshore wind turbines: aerodynamics, advanced materials, structuring, and control systems
- Foundations and support structures: monopile, jacket, floating, and adaptive anchoring technologies for offshore platforms
- Optimization of wind farm configuration: layout, spacing, wake effect, and numerical modeling techniques
- Electrical and transmission systems: submarine cable design, offshore substations, and high-voltage grid connection
- Implementation of innovative technologies: real-time monitoring systems, artificial intelligence for predictive maintenance, and marine robotics
- Comprehensive Project Management: Advanced planning, risk management, international regulations, and applicable certifications
- Strategies for the environmental and social integration of the wind farm: Impact mitigation, community engagement, and sustainability
- Economic simulation and evaluation: Financial models, return on investment analysis, operating costs, and long-term maintenance
- Offshore Operations and Maintenance (O&M) planning: Logistics, industrial safety, protocols, and technologies for access and repair
- Innovations in energy storage and hybrid systems: Battery integration, green hydrogen, and grid optimization
- Development of advanced technical reports and documentation for presentation to regulatory bodies and stakeholders
- Case studies and simulations of real-world projects for direct application of knowledge and strategic decision-making
- Defense and oral presentation of the final project before a committee of industry experts offshore wind
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.