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 Maritime Mega-Infrastructure Engineering
Offers comprehensive training in the design, construction, and management of large-scale maritime projects. You will learn to master the latest technologies and methodologies applied to ports, docks, offshore platforms, and other…
Duration1500 h
FormatOnline
Starts30 November
Places20 / 20
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Programme overview
What is the Master’s in Maritime Mega-Infrastructure Engineering?
The Master's in Maritime Megainfrastructure Engineering
Offers comprehensive training in the design, construction, and management of large-scale maritime projects. You will learn to master the latest technologies and methodologies applied to ports, docks, offshore platforms, and other complex structures. This program prepares you to lead innovative projects, guaranteeing the sustainability and efficiency of the infrastructures of the future.
Differentiating Advantages
- Advanced Simulations: 3D modeling, risk analysis, and design optimization.
- Comprehensive Project Management: planning, cost control, and quality assurance.
- Specialization in Sustainability: resilient design, environmental impact, and renewable energies.
- Industry Connections: real-world case studies, technical visits, and collaboration with leading companies.
- Global Networking: participation in international conferences and contact with top-level experts.
Programme type
Master's Degree
Study mode
Online
Duration
1,500 hours
Modules
11
Programme highlights
- Advanced Design and Construction: Master the most innovative techniques for creating ports, breakwaters, and offshore platforms.
- Comprehensive Project Management: Learn to lead complex projects, optimizing costs, deadlines, and resources with the latest tools.
- Sustainability and Resilience: Integrate environmental impact and climate change adaptation criteria into the design and operation of infrastructure.
- Cutting-Edge Technologies: Apply BIM modeling, IoT sensors, and predictive analytics for the intelligent management of megastructures.
- Real-World Case Studies: Work on simulated and real projects, guided by experts in the industry, for an unparalleled learning experience. Boost your career and become a leader in the marine megastructures sector.
Curriculum
Programme Structure
The programme is structured in 11 modules, listed below in order of study.
01
Advanced design and comprehensive optimisation of maritime infrastructure for multimodal environments
- Detailed analysis of loads and stresses in mega-infrastructures: hydrodynamic, seismic, thermal and operational loads
- Advanced modelling for structural design: numerical methods, finite elements, CFD simulations and multiphysics analysis
- Multi-criteria optimisation applied to comprehensive design: safety, cost, sustainability and operational efficiency criteria
- Disruptive Technologies in Materials and Construction: High Strength Composites, Special Concrete and Modular Prefabrication Techniques
- Design and sizing of smart ports and offshore platforms for multimodal integration, with emphasis on adaptability and scalability
- Predictive models for environmental impact management: coastal erosion, sedimentation and climate change
- Systems engineering for port logistics: automation, robotics and digitalisation oriented to the efficiency of logistics chains
- International regulations and best practices: maritime associations, design codes and megainfrastructure certifications
- Advanced methodologies for structural and operational risk management: vulnerability analysis and contingency plans
- Implementation of digital twins for real-time monitoring and predictive maintenance of multimodal marine infrastructures
02
Integrated technologies for structural analysis and resilience of port infrastructures in coastal-sea environments
- Fundamentals of structural engineering applied to port infrastructures: analysis of static and dynamic loads in maritime environments
- Evaluation and modelling of marine corrosion resistant materials: special concrete, marine steels and advanced composites
- Implementation of Intelligent Structural Monitoring Systems (SHM): Sensors, data acquisition and real-time diagnostics
- Advanced numerical simulation using finite elements for fatigue analysis and extreme event behaviour
- Integration of IoT technologies and SCADA systems for the management and predictive maintenance of port infrastructures
- Resilient design methodologies: adaptation, mitigation and recovery to natural phenomena such as storms, surges and tsunamis
- Optimisation of the design of docks, spigots and floating platforms through artificial intelligence and machine learning techniques
- Study of the environmental impact and its relationship with structural durability in coastal-sea areas
- International regulations and technical standards applied to megainfrastructures: ISO, PIANC, BS in port context
- Integrated projects: Pilot development with application of structural analysis technologies and adaptive resilience for smart ports
03
Advanced design and optimisation of multimodal maritime infrastructure with focus on resilience and integrated technologies
- Fundamentals of structural design applied to megainfrastructures: analysis of hydrodynamic, seismic and environmental loads
- Advanced modelling and numerical simulation methodologies for multi-scale structural optimisation
- Intelligent technology integration: IoT sensors, real-time monitoring and predictive maintenance systems
- Multimodal design: coordination and adaptation of infrastructures for maritime, rail, road and logistics
- Application of multi-objective optimisation algorithms to maximise operational efficiency and minimise costs
- Evaluation and improvement of resilience in the face of extreme events: modelling of climate impacts, surges and storm surges
- International regulations and sustainability criteria applied to the design of mega-infrastructures
- Implementation of advanced materials and innovative construction techniques for durability and structural strength
- Comprehensive management of projects in the maritime environment: planning, resources, risks and quality assurance
- Pilots and advanced engineering studies with direct application in megaports, offshore terminals and strategic seaways
04
Megaports Containment Foundations and Structures: Seismic and Hydrodynamic Analysis, Advanced Materials and Mitigation Strategies Against Extreme Phenomena
- Fundamentals of geotechnical engineering applied to megaports: soil properties, soil-structure interaction and advanced on-site characterisation techniques
- Design and execution of deep foundations: piles, prefabricated piles, on-site piles and combined foundations for marine environments
- Advanced seismic analysis for port structures: dynamic modelling, structural response and applicable international regulations
- Hydrodynamic evaluation of containment structures: wave load, sea currents, erosion and extreme storm effects
- Advanced materials in maritime engineering: high-strength concrete, fibre-reinforced compounds, corrosion-resistant metals, and applied nanotechnology
- Mitigation strategies in the face of extreme phenomena: resilient design, energy shocks, seismic insulation systems and flexible hydrodynamic barriers
- Numerical modelling and computational simulation: specialised software for structural, seismic and fluid-structure interaction in megaports
- Structural monitoring and maintenance: Intelligent sensor technologies, non-destructive inspection and life cycle management of port infrastructures
- Regulations, International Standards and Certifications: Compliance, Adaptation and Updating Against Global Challenges in Maritime Construction
- Pilots and field studies: Comprehensive design of foundations and containment in high complexity megaports, lessons learned and best practices
05
Advanced Predictive Maintenance and Monitoring Systems for Mega Intelligent Maritime Infrastructures
- Fundamentals of monitoring systems for mega-infrastructures: distributed sensors, data networks and protocols for maritime communication
- Advanced Instrumentation: Real-time data acquisition technologies, laser sensors, ultrasound, fibre optic and LiDAR applied to maritime structures
- Integration of IoT systems and SCADA platforms for continuous and multi-scale monitoring of mega-infrastructures
- Predictive maintenance: principles of vibration analysis, infrared thermography, spectral analysis and non-destructive techniques applied to maritime structures
- Impairment modelling and residual life using artificial intelligence and machine learning algorithms in aggressive marine environments
- Big data and advanced analytics: Processing and management of large volumes of structural and environmental data for decision-making in maintenance
- Implementation of digital twins (Digital Twins) for real-time simulation and optimisation of preventive interventions
- Integrated Risk Management: Probabilistic Failure Assessment, Active Corrosion Monitoring, and Structural Fatigue Under Dynamic Loads
- Cyber-safe architectures for monitoring systems, including encryption protocols and cyberattack resilience in critical infrastructure
- PILOTS cases and project study: application of advanced systems in smart ports, offshore parks, marine energy platforms and bridges on large seaways
06
Innovation in Design, Resilience and Advanced Technologies for Mega-Infrastructures Integrated and Sustainable
- Advanced Fundamentals in MegaInfrastructures: Structural Analysis, Modular Design and Integrated Systems for Large-Scale Infrastructures in Marine Environments
- Innovations in intelligent materials and composite for strength and durability in corrosive and dynamic environments
- Extreme event resilience: modelling and simulation of climate impacts, extreme waves, underwater earthquakes and adaptation to climate change
- Implementation of advanced real-time monitoring technologies: IoT sensors, stand-alone drones and SCADA systems for predictive maintenance and optimised management
- Sustainable design and eco-efficiency: life cycle analysis, environmental footprint and strategies to minimise ecological impact on protected marine ecosystems
- Integration of renewable energies in megainfrastructures: offshore wind technology, tidal and hybrid energy use
- Intelligent automation and control: cyberphysical systems, digital twins and artificial intelligence application for operation and decision making in complex maritime infrastructure
- International regulations and technical standards applicable to Megainfrastructures Port, Offshore and Efficient and safe shipping
- Risk management and comprehensive security: advanced methodologies for analysis and mitigation of technical, environmental and operational risks in megainfrastructures
- Real study cases and integrative projects: design, resilience and technologies applied in mega-infrastructure sustainable at global level
07
Comprehensive management, technological innovation and sustainability in the design and maintenance of mega-infrastructures
- Fundamentals of comprehensive management in mega-infrastructures: strategic planning, multidisciplinary coordination and life cycle analysis
- Technological innovation applied to design: advanced digital modelling, numerical simulation and new offshore engineering techniques
- Emerging materials and technologies: composites resistant to marine environments, nanotechnology and smart coatings
- Integration of remote monitoring systems and IoT sensors for predictive maintenance and control in real time
- Advanced methodologies for the evaluation of environmental impact and climate variables in megainfrastructures
- Environmental modelling tools: hydrodynamics, coastal erosion and sedimentation for structural sustainability
- Sustainable design: energy efficiency criteria, carbon footprint reduction and circular economy applied to maritime infrastructure
- International regulations and sustainability standards: integration of MARPOL, IMO, and national regulations in project management
- Advanced maintenance strategies: Predictive analysis using machine learning techniques and structural risk management
- Pilots and successful studies in the application of technological innovation for the resilience and sustainability of ports, platforms and dams
08
Integration of intelligent systems and big data for the efficient and sustainable management of megaports in globalized environments
- Fundamentals of intelligent systems applied to port management: machine learning, neural networks and adaptive algorithms
- Big Data and its role in megaport monitoring and optimisation: data architectures, real-time processing, and predictive analysis
- Design and implementation of IoT integrated platforms for intelligent monitoring of maritime infrastructure
- Optimisation of maritime traffic through intelligent management systems: simulation models, congestion prediction and dynamic routing algorithms
- Integration of SCADA systems and automation technologies for efficient operation of cranes, docks and logistics terminals
- Port workflow modelling and analysis with data mining and machine learning techniques for bottleneck identification and operational improvements
- Development of predictive maintenance systems in megaports using Big Data analysis and artificial intelligence to maximise the availability of critical equipment
- Digital Twins application in the management and simulation of port infrastructures for real-time strategic decision making
- Early warning and risk management based on multi-sensory data fusion: detection of adverse weather conditions and security events
- Strategies for Port Sustainability Supported by Big Data Analysis: Emissions Reduction, Efficient Energy Consumption and Waste Management
09
Optimisation, resilience and emerging technologies in the design and management of multimodal maritime infrastructure
- Advanced fundamentals of energy optimisation in megainfrastructures: thermodynamic analysis, efficient resource management and simulation models for energy footprint reduction.
- Structural resilience: Evaluation of integrity under extreme loads, adaptable design to severe weather events and real-time repair methodologies.
- Integration of emerging technologies in design and management: artificial intelligence for prediction of failures, IoT for continuous monitoring and cyberphysical systems for operational automation.
- Multimodal analysis of port systems: Synergies between maritime, rail and land logistics for optimisation of operations and minimisation of transit times.
- Advanced modelling of marine environmental dynamics: numerical simulation of currents, sedimentation and erosive effects for sustainable planning and impact mitigation.
- Risk management and industrial safety protocols applied to megainfrastructures: probabilistic evaluation, contingency plans and early warning systems.
- Design and application of intelligent control and monitoring systems: SCADA, digital twins and predictive analysis for continuous improvement and proactive maintenance.
- International regulations and technical standards for the construction and operation of multimodal megainfrastructures: ISO, IMO, and environmental guidelines.
- Circular economy and sustainability strategies in port management: reuse of materials, waste management and reduction of environmental impact.
- Cases and real applications of optimised, resilient and technologically advanced projects: Critical study of success and lessons learned for future innovation.
10
Contracting, financing and management of maritime megaprojects
- Contracting models: EPC, design and construction and concession
- FIDIC contracts applied to maritime works
- public-private collabouration
- Multilateral infrastructure financing
- Megaproject risk management
- Management of claims and disputes
- Control of term and cost
- Interface and stakeholder management
- International megaproject lessons
- Bid case
11
Master’s Final Project in Maritime Mega-Infrastructure Engineering
- Theoretical and methodological foundations for the integration of mega-infrastructures: multidisciplinary analysis and systemic approaches
- Advanced Environmental Impact Assessment: Hydrodynamic Modelling Techniques, Contaminant Dispersion and Ecological Risk Mitigation
- Innovation in materials and construction technologies for sustainable maritime infrastructure: nanomaterials, composites and marine corrosion resistant solutions
- Structural design for extreme climate scenarios and natural events: probabilistic modelling, load analysis and dynamic resilience
- Strategies for governance and integrated management of maritime resources in megainfrastructures: international cooperation, regulations and sustainability protocols
- Logistics optimisation for construction and operation: digital simulation, advanced BIM applied to maritime infrastructure and global supply chain management
- Intelligent automation and control: integration of SCADA systems, maritime IoT and predictive management based on artificial intelligence
- Security and protection in megainfrastructures: analysis of cyber and physical risks, response protocols and incident recovery
- Advanced methodologies for financial and social assessment: cost-benefit analysis, socio-economic impact and sustainable financing strategies
- Preparation, presentation and defence of the Master’s Final Project: Integration of technical concepts, innovative solutions and implementation proposals for global megainfrastructures
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
Civil engineers, port engineers, and naval architects seeking to specialize in the design, construction, and management of large maritime works.Project managers and investors interested in understanding the technical and economic feasibility of coastal and offshore mega-infrastructures.Consultants and technical advisors wishing to expand their expertise in regulations, environmental impact, an
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
- 01Design and manage complex port projects
- 02Optimize the efficiency and sustainability of maritime operations
- 03Assessing and mitigating risks in the construction and operation of maritime infrastructure
- 04Develop innovative solutions for climate change adaptation in coastal areas
- 05Leading multidisciplinary teams on large-scale marine engineering projects
- 06Applying advanced technologies in the inspection and maintenance of marine infrastructure
Careers
Career Opportunities
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02Designer/Structural Engineer of Maritime Mega-Infrastructures: Ports, breakwaters, offshore platforms, submerged tunnels.
03Project Manager: Planning, management, and supervision of the construction and maintenance of maritime mega-infrastructures.
04Maritime Engineering Consultant: Feasibility studies, environmental impact assessments, risk assessments, and safety evaluations.
05Researcher and Developer: Innovation in materials, construction techniques, and sustainable solutions for the maritime sector.
06Maritime Asset Manager: Optimization of the infrastructure lifecycle, including inspection, repair, and renovation.
07Modeling and Simulation Specialist: Analysis of structural behavior under environmental loads (waves, wind, currents).
08Maritime Safety and Risk Expert: Identification, assessment, and mitigation of risks associated with mega-infrastructure projects.
09Sustainability Manager: Implementation of practices and technologies to minimize the environmental impact of maritime construction.
Questions
Entry Requirements
Large-scale maritime infrastructures, such as ports, offshore platforms, marine renewable energy facilities, and other coastal structures.
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.
Marine engineering and construction.
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:Degree in Civil Engineering, Roads, Canals and Ports Engineering, Architecture, Naval Engineering, Maritime Engineering, or other related engineering degree; Demonstrable professional experience in the design, construction, or management of maritime infrastructure.Specific Knowledge:Knowledge of maritime hydraulics, geotechnics, structures, construction materials, and project management will be valued.Documentation: Updated CV, copy of university degree, academic transcript, ID/Passport, letter of motivation explaining interest in the master's p
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Frequently Asked Questions
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