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 Artificial Island Architecture
Prepares you to lead the future of territorial expansion and sustainable innovation. You will learn to design, plan, and build multifunctional artificial islands, from conception to execution, considering crucial aspects such as…
Duration1500 h
FormatOnline
Starts7 December
Places20 / 20
Prior knowledge
Prior Knowledge Assessment
These are the skills this programme builds. Tick the ones you already have and we will tell you which part of the syllabus is really for you.
Your profile
Tick what you already know to see your result.
Programme overview
What is the Master’s in Artificial Island Architecture?
The Master's in Artificial Island Architecture
Prepares you to lead the future of territorial expansion and sustainable innovation. You will learn to design, plan, and build multifunctional artificial islands, from conception to execution, considering crucial aspects such as economic viability, environmental impact, and resilience to climate change. This program provides you with the tools to become an expert in an emerging field with enormous global potential, mastering coastal engineering, complex project management, and international regulations.
Differentiating Advantages
- Multidisciplinary Approach: We integrate architecture, engineering, ecology, and maritime law.
- Real-World Case Studies: We analyze landmark projects worldwide, learning from their successes and challenges.
- Specialized Software: You will master 3D modeling tools, current simulation, and stability analysis.
- International Networking: You will connect with industry experts and potential employers around the world.
- Projects Practical: You will apply your knowledge to the design of a real artificial island, from concept to presentation.
Programme type
Master's Degree
Study mode
Online
Duration
1,500 hours
Modules
11
Programme highlights
- Design the Marine Future: Master the techniques of planning, designing, and constructing sustainable and functional artificial islands.
- Innovation and Sustainability: Learn about new technologies, innovative materials, and strategies to minimize environmental impact.
- Global Perspective: Analyze international case studies and explore the legal, economic, and social implications of these projects.
- Hands-on Experience: Participate in workshops and simulations that will allow you to apply your knowledge to real-world challenges in the sector.
- Professional Networking: Connect with leading experts in the industry and build your network for the future.
- Get ready to lead the next generation of maritime infrastructure projects.
Curriculum
Programme Structure
The programme is structured in 11 modules, listed below in order of study.
01
Advanced design and construction of marine infrastructure for sustainable artificial islands
- Fundamentals and international regulations applicable to the construction of marine infrastructures: analysis of regulations of the IMO, MARPOL and specific environmental protection agreements for urbanized maritime zones
- Advanced geotechnical studies for the design of foundations in marine environments: characterisation of the subsoil, sedimentation analysis and resistance of dredged materials
- Structural engineering applied to floating platforms and docks: calculation of hydrodynamic loads, wave impact and seismic design for insular structures
- Innovative technologies in dyke and breakwater construction: use of composite materials, geotubes and modular coastal defence systems for resilience to extreme weather events
- Implementation of drainage systems and wastewater management in artificial islands: design of sanitation networks, ecological treatment techniques and recovery of water resources
- Energy optimisation and use of marine renewable energy in insular infrastructures: integration of tidal turbines, photovoltaic floating panels and offshore wind systems
- Environmental impact and mitigation strategies during construction: Evaluation of effect on benthic ecosystems, habitat restoration and continuous monitoring protocols
- Advanced Structural Monitoring Systems by IoT and Intelligent Sensors: Early Deformation, Corrosion and Fatigue Detection Material for Predictive Maintenance
- Logistics planning and management of works in ocean environments: BIM models adapted to marine projects, multidisciplinary coordination and advanced control of resources and times
- International case studies: critical analysis of flagship projects of artificial islands in Asia, the Middle East and America, with a focus on technical solutions and long-term sustainability
02
Innovation in ocean engineering systems and emerging technologies for the creation of intelligent artificial islands
- Advanced Fundamentals in Ocean Engineering: Marine Fluid Dynamics, Soil-Water Interaction and Hydrodynamic Modelling Applied to Artificial Structures
- Intelligent materials and adaptive structures: properties, selection and behaviour in extreme marine environments
- Design and optimisation of offshore foundation systems: piles, anchors and floating modules for artificial islands
- Emerging technologies in underwater construction: Autonomous robotics, 3D naval printing and modular assembly systems
- Integration of sustainable energy systems: wind farms, photovoltaics and wave energy for island self-sufficiency
- Real-time sensory and monitoring: IoT sensor networks, submarine drones and satellites for environmental and structural control
- Advanced computational simulation: CAE software for stress modelling, corrosion, sedimentation and dynamic resilience
- International regulations and certifications applicable to marine and environmental constructions
- Comprehensive management of multidisciplinary projects: planning, execution and supervision with BIM and Digital Twins tools
- Future perspectives and disruptive trends in smart island architecture: artificial intelligence, blockchain and comprehensive automation
03
Integration of sustainable technologies and innovative strategies in the design and construction of intelligent artificial islands
- Fundamentals of Sustainability Applied to Maritime Engineering: Principles of Ecodesign and Analysis of the Life Cycle in Insular Infrastructures
- Advanced and eco-efficient materials: green composites, low carbon concrete, nanotechnology for resistance to the marine environment
- Application of integrated renewable energy: floating photovoltaic systems, offshore wind turbines and wave energy use technology
- Environmental modelling and simulation: Evaluation of hydrodynamic and sedimentological impact through CFD (Computational Fluid Dynamics) and GIS Geospatial Models
- Design Strategies for Climate Resilience: Storm Mitigation, Sea Level Rise and Extreme Events in Artificial Insular Environments
- Intelligent automation and control: integration of IoT, neural networks and SCADA systems for real-time monitoring and autonomous infrastructure management
- Innovation in sustainable drainage systems and efficient water management: collection, reuse and management of rainwater in built islands
- Green infrastructure and applied biotechnology: biofilters, ecological restoration with artificial corals and design of marine habitats for biodiversity
- International regulations and regulatory frameworks: Compliance with environmental standards, permits and certifications for projects in marine environments
- Case studies and comparative analysis: Review of pioneering intelligent artificial islands projects with sustainable integration and evaluation of their performance
04
Advanced offshore foundation engineering, coastal protection, dynamic stabilisation systems and environmental management for sustainable and intelligent artificial islands
- Fundamentals of Geotechnical Engineering Applied to Offshore Foundations: Properties of the Sea Floor, Geomechanical Characterization and In-Site Testing
- Advanced foundation design: single-pile piles, composite piles, anchored platforms, and hybrid systems to support dynamic and static loads
- Structural analysis methodologies under extreme environmental loads: wind, waves, currents and earthquakes
- Coastal protection systems: waves, erosion and sedimentation; Implementation of physical barriers, submerged breakwater and innovative coastal defence technologies
- Numerical modelling and CFD simulations for structure optimisation and environmental impact mitigation in coastal environments
- Dynamic stabilisation by active and passive control technologies: use of shock absorbers, adaptive anchoring systems and real-time monitoring
- Integration of IoT sensors and SCADA systems for continuous monitoring of structural stability and environmental conditions
- Comprehensive Environmental Management: Environmental Impact Assessment, Mitigation Plans and Ecological Restoration in Artificial Islands Projects
- International regulations and sustainability parametres for offshore construction: ISO 14001, LEED certification standards and life cycle evaluations (LCA)
- Global success pilots in intelligent and sustainable artificial islands; Benchmarking analysis and development of continuous improvement strategies
05
Hydrodynamic optimisation and predictive modelling for resilient development of intelligent artificial islands
- Hydrodynamic fundamentals applied to coastal engineering: basic principles of fluid dynamics in marine environments and their impact on the morphology of artificial islands
- Advanced computational modelling: Using CFDs (Computational Fluid Dynamics) for current simulation, waves and sedimentation in artificial island environments
- Geospatial design optimisation: integration of hydrodynamic models with GIS (geographic information systems) for dynamic planning and adaptation of insular design
- Implementation of predictive algorithms based on artificial intelligence for the anticipation of extreme hydrometeorological events and their impact on the insular infrastructure
- Fluid-structure interaction study: detailed analysis of hydrodynamic forces in emerging and submerged structures, with emphasis on resilience and durability
- Evaluation and mitigation of the risk of coastal erosion: innovative technical and technical strategies for the protection of the perimeter and stabilisation of the substrate
- Comprehensive simulation of climate change scenarios: modelling of sea level rise, thermal variability and its impact on intelligent insular systems
- Real-time monitoring and adaptive control systems: Design of integrated sensory networks for continuous monitoring and automatic adjustment of structures and fenders
- Energy optimisation of hydraulic and wind systems in artificial islands: analysis of efficiency and use of renewable resources through predictive modelling
- Advanced Protocols for Predictive Maintenance: Using Big Data and Machine Learning to Anticipate Wear and Schedule Marine Infrastructure Interventions
06
Innovative technologies and sustainability in the design and construction of intelligent artificial islands
- Fundamentals of coastal engineering applied to artificial islands: marine geotechnics, sediment dynamics and structural analysis
- Advanced materials: use of geotextiles, innovative marine concretions, light compounds and self-repair technologies in submerged structures
- Integrated renewable energy systems: design and optimisation of floating solar parks, offshore wind turbines and tidal energy generation for energy self-sufficiency
- Digital modelling and simulation: BIM (Building Information Modelling) applications with focus on marine ecosystems, CFD simulations (Computational Fluid Dynamics) for currents and waves
- Implementation of artificial intelligence and IoT for real-time monitoring: environmental sensors, predictive analysis platforms for maintenance and operational optimisation
- International regulations and certifications: Compliance with ISO, MARPOL standards, and international agreements focused on environmental impact and sustainable construction in coastal zones
- Biophilic design and ecological restoration strategies: integration of marine habitats, artificial reefs and natural filtration systems for the purification of surrounding water
- Advanced construction technologies: deep foundations, use of drones and autonomous robots for construction and maintenance in extreme sea conditions
- Evaluation of the life cycle (LCA) and carbon footprint: methodologies to minimise the environmental impact from the extraction of materials to the operation and dismantling
- Comprehensive risk management: Strategies for resilience to extreme climate events, underwater earthquakes and effect of climate change on the stability of the islands
07
Innovation in design, engineering and sustainability for the creation of intelligent and resilient artificial islands
- Advanced Foundations in Structural Design and Geomorphology Applied to Artificial Islands
- Integration of emerging technologies in marine engineering for the creation of resilient infrastructures
- Numerical modelling and hydraulic simulation for the study of coastal dynamics and its impact on insular stability
- Innovative and sustainable materials: properties, durability and adaptability in aggressive marine environments
- Design of intelligent environmental and structural monitoring systems based on IoT and distributed sensors
- Integrated environmental management strategies to ensure the ecological and social sustainability of artificial islands
- Climate risk analysis and adaptation through resilient architecture solutions and rapid recovery
- Energy optimisation: incorporation of renewable energies and self-consumption systems in the insular infrastructure
- Implementation of international regulations and best practices for the safety and viability of coastal engineering projects
- Case studies and international benchmarking on innovation in design and technologies applied to the creation and maintenance of intelligent islands
08
Comprehensive management of architecture and sustainable development projects in intelligent artificial islands
- Fundamentals of comprehensive management in artificial island architecture projects: definition, scope and multidisciplinary objectives
- Feasibility Analysis and Environmental Impact Studies: Advanced Methodologies for Marine Ecosystem Assessment and Sustainability
- Strategic planning and territorial planning applied to maritime environments: international zoning, regulation and regulations
- Technological innovation in island construction: advanced materials, filling techniques and seafloor stabilisation
- Integration of intelligent systems for urban management: environmental sensors, energy control and IoT communications networks
- Sustainable development and circular economy: Principles applied to island architecture projects, material recycling and waste minimisation
- BIM modelling and GIS software applied to the creation and monitoring of intelligent artificial islands
- Risk management and resilience to natural phenomena: tsunamis, storms, coastal subsistence and climate adaptation
- Advanced project management methodologies: PMI, Agile and Lean Construction adapted to complex maritime contexts
- Economic and financial-environmental evaluation: long-term cost-benefit analysis and financial sustainability of insular infrastructures
09
Innovation strategies and technologies in design and construction of sustainable and resilient artificial islands
- Fundamentals of Coastal Engineering Applied to Artificial Islands: Geotechnical Analysis and Sedimentary Dynamics
- Sustainable design: climate resilience criteria, adaptation to sea level rise and mitigation of environmental impacts
- Advanced construction technologies: dredging techniques, hydraulic fill and stabilisation of marine land
- Innovative materials: use of geotextiles, high-durability concrete and prefabricated modular systems for insular structures
- Integration of renewable energy systems: photovoltaics, offshore wind and energy storage in insular infrastructures
- Numerical modelling and simulation: tools for the study of waves, currents and erosion in artificial coastal areas
- IoT technology implementation for real-time monitoring: environmental, structural and water quality sensors
- Water resource management systems and wastewater treatment adapted for closed insular ecosystems
- International regulations and regulatory frameworks for the construction and operation of artificial islands
- Strategies for ecological regeneration: design of marine habitats and biological corridors integrated into infrastructures
10
Environmental impact, governance and international experiences of artificial islands
- Marine landfill environmental impact assessment
- Effects on sedimentary dynamics
- Biodiversity and environmental compensation
- Legal status of artificial islands in Convemar
- Governance and urban management models
- Financing of large projects
- Case studies: Dubai, Singapore and Hong Kong
- Energy Islands in the North Sea
- Social acceptance and communication
- Lessons learned from international projects
11
Master’s Final Project in Artificial Island Architecture
- Fundamentals of urban design and planning in maritime environments: territorial integration, multipurpose zoning and environmental impact assessment
- Applied geotechnical and maritime engineering: special foundations, ground stabilisation and mitigation of seismic movements in insular structures
- Advanced smart infrastructure design: Renewable energy networks, water management systems and efficient waste management on artificial islands
- Digital modelling and environmental simulation: BIM 6D tools, CFD analysis for sea currents, and prediction of extreme weather events
- Innovative materials and sustainable building technologies: marine composites, high-durability concrete and modular prefabrication techniques
- Implementation of resilience systems and adaptation to climate change: intelligent coastal barriers, sustainable drainage and protection against rise in sea level
- IoT integration and automation: distributed sensors for structural monitoring, real-time energy management and centralised control of critical systems
- Regulatory evaluation and compliance: international frameworks, LEED certifications and applicable ISO standards in artificial insular architecture projects
- Comprehensive project management: Agile methodologies, risk control, life cycle analysis and development of long-term maintenance and operational plans
- Presentation and technical defence of the final project: Preparation of technical reports, executive plans, sustainability reports and advanced functional simulations
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
Architects and urban planners seeking to specialize in the design and planning of innovative and sustainable spaces in marine environments.Civil and marine engineers interested in the technical and construction challenges of offshore structures and coastal management.Environmental consultants and sustainability experts wishing to lead responsible development projects in marine ecosystems.Ent
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
- 01Designing and managing self-sufficient island ecosystems
- 02Develop resilient building solutions for extreme marine environments
- 03Optimizing logistics and connectivity in remote island environments
- 04Implement innovative strategies for renewable energy generation on artificial islands
- 05Creating sustainable financial models for the development of artificial islands
- 06Leading urban planning and territorial development projects on artificial islands
Careers
Career Opportunities
01```html
02Artificial Island Designer: Creation of plans, 3D modeling, and conceptual design of new islands.
03Artificial Island Project Engineer: Comprehensive project management, from planning to construction and commissioning.
04Artificial Island Development Consultant: Advising governments, companies, and organizations on the feasibility, environmental impact, and development opportunities of artificial islands.
05Artificial Island Technology Researcher: Development of new technologies and materials for the construction, sustainability, and habitability of artificial islands.
06Artificial Island Environmental Impact Specialist: Assessment and mitigation of the environmental impacts of the construction and operation of artificial islands.
07Artificial Island Infrastructure Manager: Planning, maintenance, and operation of infrastructure (energy, water, transportation) on islands artificial.
08Urban planner specializing in artificial islands: Design of sustainable and livable urban spaces on artificial islands, considering social, economic, and environmental aspects.
09Landscape architect for artificial islands: Creation of green spaces and resilient landscapes on artificial islands, adapted to specific climatic and environmental conditions.
Questions
Entry Requirements
The design and construction of artificial islands, considering the technical, environmental, social and economic aspects.
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.
Design, construction and management projects for artificial islands, including floating infrastructure, islands for renewable energy, urban extensions over the sea and environmental restoration projects.
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 Architecture, Civil Engineering, Marine Engineering, or related construction and design disciplines; or demonstrable professional experience in coastal or maritime construction projects.Technical Competence:Solid knowledge of architectural design, 3D modeling, structural analysis, construction materials, and urban planning regulations. Familiarity with design software (CAD, BIM) and simulation tools.Specific Knowledge:Interest in urban planning, sustainability, environmental impact, and project manageme
Questions?
Frequently Asked Questions
Leave your details and admissions will write back. If you already know this is the one, go straight to the application and pay in the same session.