Master in Superyacht Architecture
Why this master’s programme?
The Master in Superyacht Architecture
This program provides you with the skills and knowledge necessary to design and build innovative and efficient luxury vessels. It delves into advanced naval engineering, aerodynamics, high-end interior design, and complex project management, from initial conception to final delivery. Learn to integrate sustainable technologies and comply with the most demanding international regulations, creating superyachts that exceed the expectations of the most exclusive clients.
Differentiating Advantages
- Parametric Design: Optimize every element of the yacht using cutting-edge software.
- Advanced Materials: Master the use of composite materials, lightweight alloys, and innovative systems.
- Energy Efficiency: Integrate solutions for reducing emissions and using renewable energy.
- Simulation and Modeling: Predict the yacht’s performance under different conditions and optimize its design.
- Professional Internships: Collaborate with leading shipyards and renowned design studios. international.
- Modality: Online
- Level: Masters
- Hours: 1600 H
- Start date:
Availability: 1 in stock
Who is it aimed at?
- Naval architects and designers who aspire to lead superyacht projects with a comprehensive and cutting-edge vision.
- Naval and marine engineers who wish to specialize in propulsion, automation, and comfort systems for luxury vessels.
- Project managers and shipbuilding managers who seek to master the latest techniques and regulations applicable to superyachts.
- Suppliers and manufacturers of high-end nautical equipment interested in understanding the needs and demands of the superyacht sector.
- Graduates in design, engineering, or related fields who seek an exciting career in yacht design and construction Exclusive.
Flexibility and Specialization
Combines advanced theory with real-world case studies, shipyard visits, and the opportunity to specialize in key areas such as interior design, propulsion systems, or sustainability.
Objectives and skills
Designing and optimizing luxury living spaces:
“Selecting high-end materials, integrating advanced home automation technology, and customizing the layout to maximize comfort and exclusivity.”
Managing superyacht construction and remodeling projects:
“Plan, execute and control projects, optimizing resources and deadlines, guaranteeing quality and safety, and complying with applicable regulations.”
Apply maritime regulations and safety standards:
“Manage the SOLAS Convention and the ISPS Code diligently, adapting procedures to emergencies and effectively assessing risks.”
Integrate state-of-the-art propulsion and automation systems:
Optimize system performance through predictive data analysis and the implementation of proactive maintenance strategies.
Leading multidisciplinary teams on complex nautical projects:
“Prioritize effective communication and conflict management, fostering an environment of collaboration and shared responsibility in decision-making.”
Evaluate and select innovative and sustainable materials:
“Considering life cycle, carbon footprint, recycling potential and economic viability, aligned with environmental regulations.”
Study plan – Modules
- Advanced principles of interior design in superyachts: ergonomics, functionality, and integrated luxury
- Selection and application of high-tech materials: advanced composites, treated hardwoods, and technical textiles
- Optimization of living space: modular layout, maximization of usable volume, and intelligent zoning
- Technical and creative lighting: LED technologies, automated control systems, and personalized ambiance
- State-of-the-art HVAC systems: integration, energy efficiency, and zoned climate control
- Acoustics and insulation: absorption techniques, vibration isolation, and design for sound comfort in maritime environments
- Design and integration of home automation systems: automation, intelligent resource management, and advanced security
- Study and selection of hybrid and electric propulsion systems for superyachts: advantages, challenges, and cutting-edge trends
- Design of systems for Conventional propulsion: high-power diesel engines, shaft configurations, and variable-pitch propellers
Innovation in azimuth thruster systems and pod drives: maneuverability, emissions reduction, and predictive maintenance
Integration of energy storage systems: high-capacity batteries, supercapacitors, and charge management
Propulsion management and control systems: specialized software, monitoring sensors, and real-time diagnostics
International standards and certifications applicable to propulsion systems and interior design in superyachts
Environmental impact assessment and sustainable strategies: green design, energy efficiency, and minimizing the ecological footprint
Case studies of interdisciplinary design: coordination between naval architects, mechanical engineers, and interior designers
- Fundamentals of Sustainability in Naval Architecture: Life Cycle Analysis and Reduction of the Ecological Footprint in Superyachts
- Evaluation and Selection of Advanced Materials: Carbon Fiber Composites, Lightweight Alloys, and High-Strength Recyclable Materials
- Innovation in Thermal and Acoustic Insulation: Properties, Applications, and Energy Benefits on Deck and Hull
- Integration of Hybrid and Electric Propulsion Systems: Design and Optimization to Minimize Pollutant Emissions and Maximize Energy Efficiency
- Implementation of Solar Panels and Energy Recovery Systems: Structural Design for Support and Aerodynamic Optimization
- Application of Water Treatment and Waste Management Technologies onboard: Sustainable Solutions for Autonomy and Regulatory Compliance
- Modular and Flexible Design with Smart Materials to Facilitate Repair, Predictive Maintenance, and Reuse in Ports
- Advanced Simulation and Computational Modeling to Predict Structural Behavior and Environmental Performance under Real-World Scenarios Operation
Integrated real-time monitoring systems: intelligent sensors for energy control, material wear, and emissions
International standards and certifications on marine sustainability: practical application and compliance in superyacht construction and operation
- Advanced principles in superyacht interior design: high-tech materials, luxury ergonomics, and environmental sustainability
- Integration of home automation and automation systems adapted to nautical interior architecture: smart controls, marine IoT, and efficient energy management
- Conceptualization and development of multifunctional interior spaces: adaptability, space optimization, and acoustic comfort
- Trends and regulations in marine lighting: state-of-the-art LED systems, ambient control, and certified lighting efficiency
- Innovation in finishes and coatings: resistance to salt corrosion, anti-fog treatments, and applied nanomaterials
- Study of advanced propulsion systems: hybrid, electric, and alternative fuel engines in the superyacht sector
- Integrated design of naval architecture and propulsion systems: CFD analysis and digital simulations for hydrodynamic optimization and reduction of Emissions
Implementation of onboard energy generation and storage systems: next-generation batteries, logistics management, and safety protocols
Diagnostics and predictive maintenance using IoT sensors: real-time monitoring, artificial intelligence, and advanced analytics
Success stories and flagship projects in technological innovation applied to interior design and propulsion systems in next-generation superyachts
- Advanced Fundamentals of Hydrodynamics Applied to Superyachts: Resistance, Pressure Distribution, and Hull Shape Optimization for Maximum Efficiency and Stability
- Numerical Modeling and Simulation in Computational Fluid Dynamics (CFD): Detailed Analysis of Laminar and Turbulent Flow, Cavitation, and Their Impact on Propulsion and Onboard Comfort
- Integrated Structural Design: Selection of High-Strength Composite Materials and Metal Alloys, Static and Dynamic Load Analysis under International Standards such as GL, ABS, and RINA
- Structural Analysis Methodologies Using Finite Element Analysis (FEA): Validation and Optimization to Ensure Integrity and Durability Under Extreme Marine Conditions
- Advanced Vibration Control and Noise Mitigation: Identification of Sources, Experimental Modal Analysis, and Application of Active and Passive Systems to Maximize Acoustic Comfort
- Electrical Design and Architecture of High-Performance Superyachts: Schematics Single-line diagrams, load distribution, redundant systems, and IEC 61892 safety protocols applied to luxury yachts.
Integration of Energy Management Systems (EMS) and energy efficiency solutions: hybrid generation, next-generation batteries, and onboard energy recovery systems.
Automation and control: advanced PLC programming, HMI/SCADA interfaces for real-time monitoring of electrical and mechanical systems in marine environments.
Applicable regulations and certifications: compliance with SOLAS, MARPOL, and environmental standards for electrical and structural systems in superyachts.
Case studies and real-world project analyses: detailed study from conception to delivery, including multidisciplinary aspects of hydrodynamic, structural, and electrical engineering.
- Fundamentals and architecture of integrated navigation systems: modular design, interoperability, and communication protocols
- Advanced principles of automation in superyachts: distributed control, active redundancy, and fault management
- Integration of multifunctional sensors: GNSS, fiber optic gyroscopes, accelerometers, high-resolution radar, and LIDAR systems for precise navigation
- Optimization of real-time data management: multisensor fusion, Kalman filtering algorithms, and machine learning applied to anomaly detection
- Development and configuration of integrated ECDIS and Radar/ARPA systems: electronic chart handling, automatic updates, and intelligent alerts
- Advanced piloting and heading control automation: adaptive control, semi-autonomous navigation modes, and energy consumption optimization
- Implementation of redundancy and failover strategies in critical systems for Ensuring operational continuity and navigational safety
Analysis and mitigation of GNSS sensor errors: differential techniques, use of base stations, and RTK protocols for centimeter-level accuracy improvement
Predictive monitoring and diagnostics using condition-based maintenance (CBM) systems and vibration analysis integrated into the automation system
Specific cybersecurity protocols for navigation and automation systems in superyachts: dedicated firewalls, network segmentation, and secure access management
Advanced simulation for validation and training: augmented reality-based virtual environments for failure and emergency scenarios in integrated systems
Regulatory aspects and applicable certifications in navigation and automation systems: SOLAS compliance, IEC 61162, and IMO guidelines for luxury superyachts
Optimization of the human-machine interface (HMI): ergonomic design, predictive alerts, and adaptive response to the operator’s state
- Integration and synchronization with energy management and hybrid propulsion systems to maximize efficiency and operational sustainability
- Advanced case studies of practical applications and analysis of real projects: comparative studies, improvements achieved, and scalable implementation strategies
- Fundamentals of comprehensive superyacht design: functional analysis, aesthetics, and ergonomics applied to luxury vessels
- Innovation in structural solutions: integration of advanced naval engineering techniques and multidisciplinary computational modeling
- Next-generation composite materials: carbon fibers, high-strength epoxy resins, and hybrid technologies for weight-stiffness optimization
- Advanced metals and special alloys: application of titanium, aerospace-grade aluminum, and stainless steel in critical superyacht components
- Implementation of additive manufacturing and robotics technologies in shipbuilding: automation and precision in production processes
- Ecological propulsion systems: hybrid, electric, and hydrogen engines for emissions reduction and energy efficiency
- Integration of renewable energy technologies: solar panels, wind turbines, and energy recovery systems in superyachts
- Sustainable design and lifecycle Product lifecycle: LCA analysis, selection of recyclable materials, and circular economy strategies applied to the naval sector
Advanced application of CFD and FEM simulations to optimize hydrodynamics and structural strength in high-performance superyachts
Implementation of intelligent onboard environmental monitoring and control systems: real-time analysis of energy efficiency, air quality, and waste management
International certifications and environmental regulations: compliance with IMO Tier III, Clean Shipping Index, and other regulations for sustainable construction
Innovation in interior and exterior design with eco-friendly materials and smart lighting techniques to maximize comfort and efficiency
Performance optimization through parametric design solutions and customized digital manufacturing
Advanced protocols for prototype testing and validation: structural testing, vibration analysis, and safety certification
Case studies of pioneering projects in the industry: benchmarking and practical application of disruptive technologies superyachts
Innovative Design Strategies, Sustainability and Integrated Systems for High-Performance Superyachts
- Advanced Fundamentals of Naval Design Applied to Superyachts: Hydrodynamic Analysis, Composite Structures, and Volumetric Optimization
- Innovation in Hull Forms: CFD Methods for Drag Reduction, Improved Stability, and Performance in Extreme Conditions
- Integration of Advanced Materials: Next-Generation Composites, Additive Manufacturing Technologies, and Their Impact on Weight and Performance
- Sustainability in Naval Architecture: Eco-efficient Strategies, Use of Renewable Energy on Board, and Minimizing Carbon Footprint
- Implementation of Hybrid and Electric Systems: Propulsion Plant Design, Energy Management, and High-Performance Energy Storage
- Thermal and Acoustic Management: Advanced Insulation, Onboard Comfort, and Vibration Reduction through Comprehensive Engineering Solutions
- Integration of Intelligent Systems: Automation, Centralized Control, and Real-Time Monitoring for Optimize the operation and safety of the superyacht
Modular and flexible design: Adaptability of the interior and exterior layout for exclusive customization without compromising efficiency and safety
Evaluation and compliance with specific international regulations for superyachts: IMO, CE, and leading classification standards
Final project: Development and presentation of an innovative superyacht concept, applying the strategies learned to maximize performance and sustainability
- Fundamentals of aerodynamics in marine vehicles: physical principles, laminar and turbulent flow, and their impact on the hydrodynamic drag of superyachts
- Advanced analysis of hydrodynamic profiles: design and optimization of hulls and appendages to minimize drag and maximize energy efficiency
- CFD (Computational Fluid Dynamics) computational modeling: specific applications in aerodynamic and hydrodynamic simulation for superyachts
- Integration of hybrid and electric propulsion systems: evaluation of their influence on naval architecture and energy performance
- Optimization of hull and superstructure design for aerodynamic turbulence reduction and improved onboard comfort
- Advanced and lightweight materials: impact on energy efficiency and reducing the superyacht’s environmental footprint
- Energy recovery and management systems: design of regenerative circuits, energy storage, and utilization Renewables in Superyachts
Methodologies for evaluating and improving the total drag coefficient (TDC) through simulations and wind and water tunnel testing
Strategies for reducing pollutant emissions: international regulations, applicable technologies, and their integration into naval design
Advanced active and passive control tools for stability and energy efficiency under variable navigation conditions
Wind-sea interaction and its effect on the dynamic stability and energy consumption of the superyacht under real operating conditions
Implementation of intelligent energy monitoring and management systems: sensors, IoT, and data analysis for continuous optimization
Case studies and real-world case studies: detailed analysis of flagship superyacht projects applying innovative technologies in aerodynamics and energy efficiency
Integrated projects: conceptual design and technical development of advanced systems that improve aerodynamic performance and energy efficiency in naval architecture superyachts
- International regulations and certifications applicable to energy efficiency and emissions in superyachts: compliance, challenges, and future perspectives
- Fundamentals of Naval Design Applied to Superyachts: Hydrodynamic and Aerodynamic Principles that Optimize Efficiency and Stability in Large Vessels
- Technological Innovation in Advanced Materials: Use of Composites, Lightweight Alloys, and Nanotechnology for Stronger and Lighter Structures
- Integration of Intelligent Systems: Automation, Systems Control, and Real-Time Monitoring for Improved Performance and Safety on Board
- Sustainable Design: Life Cycle Analysis of Materials and Strategies to Minimize the Environmental Footprint in the Construction and Operation of Superyachts
- Advanced Propulsion and Alternative Energies: Hybrid and Electric Engines and Renewable Energy Systems Applied to High-Performance Naval Architecture
- Hydrodynamic Optimization of the Hull: Innovative Shapes and Technologies to Reduce Drag and Improve Maneuverability in Different Sea Conditions
- Efficient and Ergonomic Interior Architecture: Design of Living Spaces that Combine Technology, comfort, and functionality for crew and passengers
Advanced simulation and modeling: Use of CFD (Computational Fluid Dynamics) and BIM (Building Information Modeling) software to predict results and validate design solutions
International regulations and certifications for sustainable superyachts: Compliance with environmental and safety standards in modern naval architecture
Case studies and future trends: Analysis of innovative superyachts that are setting the standard in design, technology, and sustainability for the next generation of high-performance vessels
- Project Conceptualization and Definition: Analysis of client requirements, functional program study, and selection of advanced structural typologies adapted to large superyachts
- Multidisciplinary Integration: Coordination of naval architecture, structural engineering, propulsion systems, and high-end interior design
- Application of CAD/CAM software and CFD simulations for hydrodynamic and aerodynamic optimization of the hull and superstructure
- Materials Innovation: Study of lightweight alloys, advanced composites, and nanotechnology for weight reduction and increased strength
- Development of Hybrid and Electric Propulsion Systems: Analysis of performance, range, and emissions reduction in next-generation superyachts
- Advanced Dynamic Stabilization Design: Gyroscopic, hydraulic, and AI-based technologies for comfort and safety at sea
- Implementation of intelligent onboard management and automation systems (Smart Ship Technology), including IoT and Big Data for predictive maintenance and operational efficiency
International regulations and certifications: rigorous application of SOLAS, IMO, MARPOL, and specific classification standards for superyachts
Digital prototyping and augmented reality for advanced visualization and validation prior to physical construction
Environmental impact analysis and sustainability: strategies for eco-efficient design and reduction of the environmental footprint
Optimization of interior spaces: ergonomics, distribution, access, and thermodynamic, acoustic, and lighting comfort in ultra-luxury environments
Comprehensive planning of construction and assembly: schedules, quality control, logistics, and industrial safety procedures
Advanced strategies for operational performance: stability, seakeeping, and maneuverability in extreme conditions
Development of the final project report: technical documentation, descriptive report, plans, and operation and maintenance manuals
Professional presentation and defense Oral presentation before a court: technical justification, innovation, and contributions to the naval architecture sector in superyachts.
[…]
Career prospects
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- Superyacht Interior Designer: Creation of luxurious and functional bespoke spaces.
- Naval Architect specializing in Superyachts: Structural and functional design of luxury yachts.
- Superyacht Construction/Remodeling Project Manager: Project supervision and coordination.
- Superyacht Design and Regulations Consultant: Technical and legal advice in the industry.
- Superyacht Systems Engineering Specialist: Design and implementation of advanced systems (electrical, HVAC, etc.).
- Superyacht Exterior/Concept Designer: Development of the yacht’s exterior aesthetics and visual identity.
- Researcher and Developer of New Technologies for Superyachts: Innovation in materials, propulsion, and sustainability.
Superyacht Appraiser: Valuation and technical analysis for buying and selling, insurance, etc.
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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 the Future: Master luxury naval architecture and create innovative and sustainable superyachts.
- Immersive Experience: Learn with real projects, advanced simulations, and visits to leading shipyards.
- Exclusive Networking: Connect with top professionals in the industry and open doors to your international career.
- Cutting-Edge Software: Master the most advanced CAD/CAM and naval design tools on the market.
- Professional Certification: Earn an internationally recognized qualification and stand out in the superyacht industry.
Testimonials
This Master’s in Superyacht Architecture exceeded my expectations. I gained in-depth technical and practical knowledge, from conceptual design and systems engineering to project management and maritime regulations. Masterclasses from industry professionals and the use of specialized software enabled me to develop an innovative and realistic final project, opening doors to exciting career opportunities at renowned shipyards.
During my Master’s degree in Naval Design & Architecture, I exceeded my expectations by leading the development of an innovative hybrid propulsion system for recreational boats, which reduced fuel consumption by 30% in simulations. This project, later published in a specialized journal, secured me a position at a prestigious naval engineering firm even before I graduated.
I designed the hybrid propulsion system for the superyacht “Thalassa”, reducing emissions by 30% and winning the Innovation in Nautical Design award at the Monaco Yacht Show.
“I applied the knowledge from the Master’s in Superyacht Architecture directly to my current work, leading the design of a 60-meter yacht. Thanks to specialized training in structures and hydrodynamics, we were able to optimize the hull’s performance by 12%, exceeding the client’s expectations and establishing myself as a leader in the sector.”
Frequently asked questions
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.
Nautical industry, specifically the design and construction of superyachts.
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.
- Project Conceptualization and Definition: Analysis of client requirements, functional program study, and selection of advanced structural typologies adapted to large superyachts
- Multidisciplinary Integration: Coordination of naval architecture, structural engineering, propulsion systems, and high-end interior design
- Application of CAD/CAM software and CFD simulations for hydrodynamic and aerodynamic optimization of the hull and superstructure
- Materials Innovation: Study of lightweight alloys, advanced composites, and nanotechnology for weight reduction and increased strength
- Development of Hybrid and Electric Propulsion Systems: Analysis of performance, range, and emissions reduction in next-generation superyachts
- Advanced Dynamic Stabilization Design: Gyroscopic, hydraulic, and AI-based technologies for comfort and safety at sea
- Implementation of intelligent onboard management and automation systems (Smart Ship Technology), including IoT and Big Data for predictive maintenance and operational efficiency
International regulations and certifications: rigorous application of SOLAS, IMO, MARPOL, and specific classification standards for superyachts
Digital prototyping and augmented reality for advanced visualization and validation prior to physical construction
Environmental impact analysis and sustainability: strategies for eco-efficient design and reduction of the environmental footprint
Optimization of interior spaces: ergonomics, distribution, access, and thermodynamic, acoustic, and lighting comfort in ultra-luxury environments
Comprehensive planning of construction and assembly: schedules, quality control, logistics, and industrial safety procedures
Advanced strategies for operational performance: stability, seakeeping, and maneuverability in extreme conditions
Development of the final project report: technical documentation, descriptive report, plans, and operation and maintenance manuals
Professional presentation and defense Oral presentation before a court: technical justification, innovation, and contributions to the naval architecture sector in superyachts.
[…]
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.