Dr. Marina AlcoverAcademic director focused on measurable results and operational excellence in maritime education. Integrates IMO/STCW regulations and ISO 21001/9001 f
Masters · 1500 h · 11 modules
Master's in Tidal Energy and Ocean Currents
Offers comprehensive training in the use of marine energy resources. You will learn to design, model, and optimize tidal and ocean current energy conversion systems, from resource assessment to integration into the electrical…
Duration1500 h
FormatOnline
Starts4 January
Places20 / 20
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Programme overview
What is the Master’s in Tidal Energy and Ocean Currents?
The Master's in Tidal Energy and Ocean Currents
Offers comprehensive training in the use of marine energy resources. You will learn to design, model, and optimize tidal and ocean current energy conversion systems, from resource assessment to integration into the electrical grid. Delve into turbine engineering, control and management strategies, and the environmental and socioeconomic aspects of these renewable technologies.
Differential Advantages
- Advanced Modeling: numerical simulation of resource and device performance.
- Optimized Design: methodologies to maximize efficiency and reduce costs.
- Grid Connection: control and management strategies for generated energy.
- Impact Analysis: environmental and socioeconomic assessment of tidal power projects.
- Real-World Case Studies: analysis of international projects and specific challenges.
Programme type
Master's Degree
Study mode
Online
Duration
1,500 hours
Modules
11
Programme highlights
- Comprehensive Mastery: from theory and modeling to design, operation, and maintenance of tidal and ocean current energy systems.
- Innovative Technologies: in-depth exploration of axial and cross-flow turbines, wave energy conversion systems, and energy storage strategies.
- Environmental Impact and Sustainability: rigorous assessment of ecological effects and development of sustainable practices for marine energy exploitation.
- Simulations and Real-World Projects: practical application of knowledge through specialized software and participation in studies from real-world project case studies.
- Career path: preparing for leadership roles in the marine energy sector, engineering and consulting companies, and research institutions.
- Boost your career towards a sustainable energy future with a focus on tidal and ocean current energy.
Curriculum
Programme Structure
The programme is structured in 11 modules, listed below in order of study.
01
Advanced technologies for the capture and optimisation of tidal energy and ocean currents
- Fundamentals of tidal energy and ocean currents: physical principles, kinematics and dynamics of marine fluids
- Types of technologies for energy capture: barriers, horizontal axis turbines, vertical axis turbines and oscillatory systems
- Design and optimisation of converter devices: aerodynamics/advanced hydrodynamics, composite materials and structures resistant to marine corrosion
- Computational modelling and numerical simulation: CFD (Computational Fluid Dynamics), Multipurpose Modelling Techniques for Resource Prediction and Performance
- Integration of generation systems: coupling with intelligent electrical networks and associated energy storage
- Innovations in remote control and monitoring systems: acoustic sensors, marine LiDAR, IoT and SCADA platforms applied to the tidal sector
- Environmental impact and mitigation: Ecological impact assessment, techniques to minimise risk on marine ecosystems, and operational sustainability strategies
- International regulations and technical certification: IEC standards, DNV-GL certification and requirements for marine offshore projects
- Case study and analysis of global pioneering projects: operational performance, lessons learned and technological benchmarking
- Future Outlook: Emerging Technologies, Advanced Digitization and Trends in Research and Innovation in Tidal Energy and Ocean Currents
02
Design, installation and maintenance of tidal energy systems with a focus on sustainability and environmental efficiency
- Fundamentals of tidal energy and ocean currents: physical principles, tidal dynamics, sea currents and their energy use
- Tidal systems design: Selection of technologies (barriers, oscillating turbines, floating, current systems), technical and environmental feasibility criteria
- Advanced hydrodynamic modelling: numerical simulations for flow prediction, turbulence, sediment impacts and marine life
- Integration of energy systems: design of marine platforms, coupling with electrical networks and energy storage
- Materials and structures for ocean environments: corrosion resistance, tidal cycle fatigue, innovative techniques and materials for longevity and low maintenance
- Tidal systems installation procedures: logistics planning, maritime manoeuvres, anchoring and stabilisation techniques, applicable international regulations
- Predictive and corrective maintenance: Drone and ROVs remote inspection techniques, revision protocols, early failure detection and life cycle optimisation
- Environmental impact assessment: biodiversity studies, mitigation analysis of marine fauna, submarine noise and sedimentation
- Sustainability Strategies: Environmental Certifications, Circular Economy, Carbon Footprint Reduction and Compliance with National and International Regulations
- PILOTS CASES AND ANALYSIS OF REAL PROJECTS: Integral design, successful installation, operation and maintenance of tidal systems at a commercial scale
03
Technological innovation and comprehensive design in tidal and ocean current systems for sustainable and efficient energy
- Scientific and mathematical foundations of tidal energy and ocean currents: fluid dynamics, coastal hydrodynamics and spectral tidal analysis
- Innovations in materials for marine components: corrosion resistance, structural fatigue and nanotechnology applied in turbines and anchors
- Comprehensive design of tidal energy systems: integration of generators, power converters and intelligent control systems
- Advanced numerical modelling and computational simulation: CFD (Fluid Computational Dynamics) for flow optimisation and performance prediction
- Advanced automation and control: adaptive algorithms, SCADA systems and sensor networks for real-time monitoring
- Innovations in transmission and storage technologies: pump storage systems, flow batteries and supercapacitors for network stabilisation
- Environmental and social evaluation of tidal projects: Impact analysis on marine ecosystems and sustainable mitigation strategies
- International regulations and applicable certifications: Compliance with IEC standards, ISO protocols and maritime regulations for energy projects
- Technological Benchmarking and Case Studies: Comparative Analysis of Pilot and Commercial Projects in Europe, Asia and North America
- Prototype development and tests in hydrodynamic labouratories: experimental design, instrumentation and analysis of results for system validation
04
Advanced management of tidal and ocean current projects — Modelling, real-time control, network integration, and environmental and economic viability assessment
- Fundamentals of tidal project management: life cycle, agile and traditional methodologies applied to oceanic renewable energy
- Advanced mathematical modelling of tidal and ocean current resources: numerical techniques, hydrodynamic simulation and specialised software (CFD, Mike 21, OpenFoam)
- Design and optimisation of real-time control systems for tidal turbines and current power converters: architecture, predictive algorithms and SCADA systems
- Intelligent integration to electrical networks: Strategies for variability management, energy storage and use of advanced inverters with IEC 61850 and IEEE 1547 protocols
- Environmental feasibility multi-criteria assessment: Impact analysis on marine ecosystems, risk mitigation, international regulations (MSFD, OSPAR, Habitat Protection Directives)
- Detailed economic analysis: financial modelling, leveled energy costs (LCOE), cash flow assessment, financial risks and green financing mechanisms
- Advanced software tools for comprehensive project management: MS Project, Primavera P6, BIM applied to maritime infrastructure and online monitoring systems
- Real case studies and studies: implementation of commercial projects and pilots of tidal energy in different regions, technical, logistical and regulatory challenges
- Stakeholder management and public policies: Strategies for negotiating licences, environmental permits, social acceptance and public-private partnerships
- Operational safety and predictive maintenance: Offshore safe operation protocols, remote inspection, and data analysis for equipment life cycle optimisation
05
Dynamic analysis and advanced simulation of ocean flows for maximisation of performance in tidal power plants and underwater currents
- Fundamentals of Ocean Fluid Dynamics: Hydrodynamic Characteristics and Physical Properties of Seawater
- Mathematical modelling of tidal flows and underwater currents: Navier-Stokes equations and hydrodynamic approaches
- Advanced CFD simulation tools (computational fluid dynamics) applied to tidal energy and ocean currents
- Spectral and temporal analysis of surge, tide and current for optimisation of energy collection devices
- Fluid-structure interaction: advanced simulation for design and resistance of turbines and energy converters
- Implementation of numerical models for predicting turbulent behaviours in ocean multidirectional flows
- Simulation in multi-programme environments: SCADA systems integration with predictive models for maximisation of operational performance
- Application of artificial intelligence and machine learning in the calibration and continuous improvement of dynamic models
- Evaluation and mitigation of environmental effects arising from the installation and operation of tidal plants through dispersion and transport models
- Experimental validation and field: Use of oceanographic sensors, ADCP, and buoys for correlation and adjustment of numerical simulations
06
Innovation, design and comprehensive management in tidal and ocean current technologies for a sustainable energy transition
- Advanced foundations in fluid dynamics applied to tidal energy and ocean currents: mathematical models, numerical simulations and integral hydrodynamic analysis
- Technological innovation in energy capture systems: design and optimisation of ocean current turbines, water column oscillation devices (OWC) and multiphase hydrodynamic converters
- Advanced materials and coatings for marine infrastructure: corrosion resistance, biofouling, and its impact on long-term operational efficiency
- Comprehensive management of tidal projects: Strategic planning, energy resource assessment and economic-environmental viability analysis using BIM methodologies and GIS systems
- Implementation of intelligent systems for remote monitoring and control: SCADA architecture focused on performance optimisation and failure prevention in marine installations
- Regulation, regulations and international standards applicable to the tidal and ocean current industry: environmental compliance, safety and technical certification
- Integration of tidal power in electrical networks: storage, variability management, and stability analysis in microgrids and smart grid systems
- Innovation in Environmental Impact Mitigation Techniques: Evaluation of Effects on Marine Ecosystems, Underwater Noise and Mitigation Strategies through Eco-Friendly Technology
- Business models and financing for ocean energy projects: risk analysis, incentive mechanisms, and strategies for successful commercial scalability
- PILOTS cases and global prototype study: critical analysis of operational facilities, lessons learned and emerging trends in technology and sustainable management
07
Advanced technologies and innovative strategies in design, installation and operation of tidal and ocean current systems for a sustainable energy transition
- Advanced Fundamentals in Tidal Energy and Ocean Currents: Fluid Dynamics, Characterization and Numerical Modelling of Tides and Marine Currents
- Tidal generation technologies: Horizontal and vertical axis turbines, oscillating buoy devices, and tidal prey systems
- Ocean current utilisation systems: design and optimisation of underwater turbines, technical challenges and materials resistant to marine corrosion
- Innovations in energy capture: integration of intelligent sensors, real-time monitoring and advanced telemetry for operational optimisation
- Sustainable design strategies: Environmental impact analysis, mitigation of effects on marine ecosystems, and evaluation of the project life cycle
- Installation of marine infrastructures: deployment logistics, dynamic anchors, underwater foundations and extreme sea conditions management
- Predictive operation and maintenance: non-destructive inspection techniques, underwater drones, real-time artificial intelligence integration
- Economic and financial models for tidal projects: feasibility analysis, leveled energy costs (LCOE) and green financing strategies
- Regulatory framework and international regulations: Compliance with environmental standards, maritime licensing and quality certifications in marine renewable energy
- Contribution of tidal energy and ocean currents in the global energy transition: integration to smart grids, energy storage and synergies with other renewables
08
Integration and optimisation of ocean energy networks: multi-scale analysis, intelligent control and storage strategies for tidal energy and underwater currents
- Fundamentals of energy integration: traditional electrical networks vs. Ocean networks, challenges and opportunities
- Multiscale analysis: modelling and simulation of tidal resources and underwater currents from micro to macro scale
- Hybrid system design: Combination of tidal energy, ocean currents and other marine renewables
- Intelligent control of electrical networks: adaptive algorithms, machine learning and neural networks applied to ocean energy management
- Advanced energy storage strategies: Flow batteries, HidroPower systems, Heat storage and their application in marine environments
- Real-time optimisation: Use of Big Data and IoT sensors to maximise efficiency and availability of installations
- Oceanic microgrids: design, operation and autonomous management versus environmental variability
- Integration with the terrestrial power network: power converters, communication protocols and synchronisation
- International regulations and standards applicable to the interconnection and operation of marine energy
- Case studies: Analysis of implemented projects of integration and storage for tidal energy and ocean currents
09
Comprehensive collection, design and management technologies for tidal and ocean current systems in the sustainable energy transition
- Physical and oceanic foundations of tidal energy: Tidal dynamics, pressure gradients and Coriolis forces applied to ocean currents
- Principles of energy conversion: detailed analysis of piezoelectric, hydraulic and electromagnetic technologies for efficient capture of tidal energy and ocean currents
- Design and optimisation of collector devices: Horizontal and vertical axis turbines, dam and dam systems, and emerging technologies based on biomimetics and advanced materials
- Advanced hydrodynamic evaluation and modelling: computational flow simulation, fluid-structure interaction and adaptation to flow and seasonal variations of flow and speed
- Environmental integration and environmental conditions: Impact analysis on marine ecosystems, mitigation strategies for environmental alterations and compliance with international sustainability regulations
- Comprehensive management of tidal projects: strategic planning, technical and economic feasibility studies, financial modelling and life cycle evaluation (LCA) for offshore facilities
- Intelligent monitoring and control systems: Implementation of state-of-the-art sensors, SCADA for real-time monitoring, and predictive algorithms based on AI for predictive maintenance
- Energy distribution and storage networks: connection of tidal systems to intelligent electrical networks, integration with battery storage systems and microgrid solutions in remote areas
- Security, regulations and risk management: comprehensive analysis of the international regulatory framework, operating risk management procedures and contingency plans for extreme maritime events
- Case studies and real applications: critical evaluation of pioneering projects worldwide, lessons learned, technological trends and their strategic role in the energy transition towards sustainable models
10
Energy resource, measurement and characterisation of tidal sites
- Tide and harmonic theory
- Current measurement with ADCP
- CHARACTERIZATION OF TURBULENCE
- Regional hydrodynamic models
- Evaluation of the removable resource
- Site selection
- Bathymetry and background studies
- Interaction with navigation and fishing
- Annual production estimation
- Resource Evaluation Report
11
Master’s Final Project in Tidal Energy and Ocean Currents
- Advanced methodologies for the integration of tidal systems and ocean current technologies: multidisciplinary analysis and hybrid models
- Energy optimisation in tidal devices: aerodynamic, hydraulic and electromechanical design to maximise efficiency and durability
- Detailed study of ocean resources: hydrodynamic characterisation, temporal and spatial variability of tides and sea currents
- Advanced computational simulation: numerical modelling of energy systems and forecasts by means of CFD and coupled ecosystem modelling
- Integration in intelligent electrical networks: strategies for storage, regulation and dispatch of tidal energy in distributed environments
- Environmental Analysis and Impact Assessment: Techniques for Mitigating Effects on Marine Ecosystems and Applicable International Regulations
- Development of Predictive Maintenance and Monitoring Protocols: Applicability of IoT Sensors, Artificial Intelligence and Machine Learning in Ocean Systems
- Economic and feasibility aspects: Study of energy level costs (LCOE), incentives and financial models for marine projects
- Design and implementation of pilot projects and industrial scales: success stories, critical analysis and lessons learned worldwide
- Preparation of the final work: methodology, data integration and professional presentation for a sustainable energy transition based on marine solutions
Workload
Study Time and Workload
1500 hours of study, online and at your own pace. Move the slider to the hours a week you can really put in.
Hours a week8
Weeks to finish—
You finish around—
Who it is for
Engineers and graduates in renewable energies looking to specialize in an innovative energy source with high growth potential.Maritime and offshore professionals interested in diversifying their knowledge and exploring new opportunities in the field of ocean energy.Researchers and academics who wish to delve deeper into the technology and development of tidal and ocean current energy projects.
Faculty
Academic direction and faculty
The teaching team at Navalis: working professionals who deliver and oversee the institute's programmes.
Eng. Diego Cifuentes
Cap. Javier Abaroa (MCA)
Dr. Pau Ferrer
Dr. Nuria Llobregat
Eng. Javier Bañuls
Eng. Sofía Marquina
Eng. Tomás Riera
Verified reviews
Student Reviews
Reviews collected and verified by Opynio, not written by us.
Outcomes
Learning Outcomes
- 01Develop innovative solutions for optimizing energy efficiency in tidal power parks.
- 02Evaluate the environmental impact of tidal energy facilities and propose effective mitigation measures.
- 03Design and manage engineering projects for the energy use of tides and ocean currents.
- 04Lead multidisciplinary teams in the research and development of advanced technologies for tidal energy.
- 05Modeling and simulating the behavior of tidal energy systems to optimize their performance and reliability
- 06Analyze the economic viability of tidal energy projects, considering technical, regulatory and market factors
Careers
Career Opportunities
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02Tidal Energy Project Engineer: Design, planning, and management of tidal energy farm projects.
03Tidal Resource Assessment Specialist: Analysis and modeling of ocean currents for turbine site optimization.
04Renewable Marine Energy Consultant: Technical and economic advice for companies and governments on tidal energy development.
05Research and Development (R&D): Participation in research projects to improve the efficiency and sustainability of tidal energy technologies.
06Operations and Maintenance Engineer: Supervision and maintenance of tidal turbines and associated systems.
07Marine Energy Farm Manager: Management and direction of marine energy farms Tidal energy, including production optimization and regulatory compliance.
08Tidal Energy Technology Developer: Design and development of new devices and systems for tidal energy conversion.
09Environmental Impact Analyst: Assessment of the environmental impacts of tidal energy projects and development of mitigation measures.
Questions
Entry Requirements
The energy of tides and ocean currents.
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.
Tidal energy harnesses the rise and fall of sea level caused by the gravitational forces of the sun and moon, while ocean current energy uses the kinetic energy of the continuous and predictable movement of ocean currents.
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 Institute + operational portfolio (tracks, SOPs, reports and KPIs) useful for audits and employment.
Online admissions
Admissions Process
No waiting for a phone call. If your documents are complete, you can pay in the same session.
Entry requirements
```htmlAcademic/Professional Profile:Bachelor's/Undergraduate Degree in Engineering (Energy, Mechanical, Civil, Naval), Physical Sciences, Environmental Sciences or related field; Demonstrable professional experience in the energy sector, preferably in marine renewable energy.Specific knowledge:Knowledge of fluid mechanics, power generation, electrical engineering, oceanography, and/or numerical modeling will be valued.Language proficiency:English level B2 (CEFR) or equivalent, for understanding technical documentation and participating in international projects.Documentation:
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