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 Floating Cities and Offshore Urban Planning
This is an innovative program that prepares you to lead the future of urban planning in a context of climate change and population growth. Learn to design, plan, and build resilient and sustainable cities on the water…
Duration1500 h
FormatOnline
Starts7 December
Places20 / 20
Prior knowledge
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Programme overview
What is the Master’s in Floating Cities and Offshore Urban Planning?
The Master's in Floating Cities and Offshore Urban Planning
This is an innovative program that prepares you to lead the future of urban planning in a context of climate change and population growth. Learn to design, plan, and build resilient and sustainable cities on the water, integrating marine engineering, innovative architecture, and maritime legislation. Master the techniques for creating floating urban ecosystems that promote renewable energy, resource management, and social cohesion.
Differential Advantages
- Multidisciplinary Approach: Combines knowledge from engineering, architecture, law, and environmental science.
- Real-World Projects: Participate in the design and planning of floating city prototypes.
- Cutting-Edge Technologies: Learn to use 3D simulation and modeling software for marine environments.
- International Experts: Receive masterclasses from leaders in the field of offshore urbanism.
- Opportunities Professionals: Access a network of contacts in companies and institutions dedicated to the development of floating cities.
Programme type
Master's Degree
Study mode
Online
Duration
1,500 hours
Modules
11
Programme highlights
- Design the urban future: Learn to create resilient and sustainable cities in aquatic environments.
- Innovative technologies: Master the latest naval engineering and architecture techniques applied to offshore urbanism.
- Global perspective: Explore international case studies and the legal, economic, and environmental implications of floating cities.
- Hands-on experience: Participate in real-world projects and simulations to develop innovative solutions.
- Career opportunities: Prepare to lead urban planning, sustainable development, and coastal engineering projects globally.
- Boost your career in the urbanism of the future and contributes to the creation of innovative living spaces.
Curriculum
Programme Structure
The programme is structured in 11 modules, listed below in order of study.
01
Comprehensive design and sustainability in high complexity offshore urban infrastructure
- Fundamentals of integrated design in urban offshore infrastructures: multidisciplinary criteria and systemic approaches
- Advanced Structural Analysis: Numerical Methods, Floating Platform Dynamics, and Seismic Resistance
- Innovative materials and emerging technologies: composites, special concrete and anti-theft solutions in marine environments
- Environmental assessment and impact modelling: GIS tools, current simulation and contaminant dispersion
- Sustainable energy management: Integration of renewable offshore energy (wind, wind power, floating solar) and advanced storage
- Design of water efficiency systems: collection, treatment and reuse of water in closed marine ecosystems
- International regulations and technical standards applicable to high complexity offshore constructions
- Resilient climate change planning: adaptation to sea level rise, extreme events and ocean variability
- Infrastructure for mobility and accessibility: design of underwater transport networks, drones and autonomous vehicles in floating environments
- Digital integration and remote monitoring: IoT use, digital twins and predictive maintenance for operational optimisation
02
Advanced technologies and innovative materials for the construction and maintenance of sustainable floating infrastructures
- Fundamentals of advanced materials: mechanical characteristics, corrosion resistance and marine adaptability
- Nanotechnology applied to offshore construction: self-cleaning and self-repairing coatings for floating structures
- Composite materials and their applications: Carbon fibres, reinforced polymers and their behaviour in aggressive marine environments
- Additive manufacturing technologies (3D printing) for high strength and low weight structural components
- Innovations in high-strength steels: properties, heat treatment and anti-corrosive protection techniques by galvanizing and polymeric coatings
- Development and use of recycled and sustainable materials in offshore construction: environmental impact and life cycle efficiency
- Intelligent structural monitoring systems: embedded sensors, optical fibre and IoT systems for predictive maintenance and real-time control
- Advanced methodologies for the evaluation of fatigue and structural deterioration in floating infrastructures subject to dynamic ocean loads
- Waterproofing and protection technologies against marine biofouling by means of nano-coatings and intelligent biological waste
- Design and optimisation of structures with hybrid materials: functional integration, chemical and mechanical compatibility to prolong offshore life
03
Innovation and sustainability in the design of urban offshore infrastructures: integrated approaches and disruptive technologies
- Fundamentals of Sustainability in Marine Environments: Ecological Principles Applied to Offshore Urbanism
- Innovation in materials and technologies for floating infrastructure: advanced polymers, ecological compounds and additive manufacturing techniques
- Integrated design of urban offshore systems: synergies between architecture, civil engineering, and maritime technologies
- Digital modelling and advanced simulation for the evaluation of environmental and structural impacts
- Intelligent management of renewable energy and resources in floating cities: integration of photovoltaic systems, offshore wind and ocean thermal conversions
- Resilient infrastructure in the face of extreme climate events: adaptation and mitigation strategies at the structural and operational level
- Disruptive technologies in mobility and offshore transport: autonomous vehicles, cargo drones and navigation systems under marine conditions
- Methodologies for the regeneration and preservation of marine ecosystems associated with urban development
- International regulations and regulatory frameworks applicable to offshore urbanism: analysis of cases and guidelines for legal and environmental conformity
- Economic evaluation and green financing models for floating urban infrastructure projects
04
Integrated systems of energy, water and mobility for floating cities (Microgrids, water treatment and reuse, circular management and autonomous operation)
- Microgrids design and architecture for offshore environments: integration of renewable sources, energy storage and dynamic demand management
- Advanced water treatment and reuse systems: desalination technologies, reverse osmosis, bioreactors and closed-loop recycling processes
- Circular management models of water and energy resources: circular economy applied to floating cities to maximise efficiency and minimise waste
- Automation and autonomous operation of integrated systems: SCADA control, artificial intelligence and machine learning for real-time optimisation
- Microgrids interconnection and synchronisation: communication protocols, network stability and response to shortcomings or peak demand
- Offshore sustainable mobility: design of electric and autonomous fleets, wireless charging infrastructure and integrated management of floating urban transport
- Evaluation of environmental impact and applicable regulations: Compliance with international standards and strategies for mitigating pollution in marine ecosystems
- Advanced simulation and digital modelling of energy and water systems: use of digital twins for forecasting, predictive maintenance and resilience
- Management of liquid and solid waste in floating cities: separation, valorization and minimisation technologies for closed cycles
- IoT devices and smart sensors for continuous monitoring: integration into digital ecosystems and applied cybersecurity protocols
05
Strategic planning and risk management in marine urban environments and smart floating cities
- Fundamentals of strategic planning applied to marine urban environments: integrated concepts, methodologies and approaches
- Analysis of natural and anthropic risks in floating cities: modelling of hydrometeorological, seismic and structural anchoring threats
- Design and application of risk management systems for offshore infrastructures: protocols, indicators and contingency plans
- Predictive models and advanced simulation for extreme event management: waves, surge, and climate variability
- IoT and sensory real-time technology implementation for smart floating cities monitoring and response
- Integration of early warning systems with urban and maritime control platforms: architecture, communications and interoperable protocols
- Evaluation and mitigation of risks associated with marine pollution and its impact on urban offshore habitability and sustainability
- International regulations and technical standards for risk planning and management in urban maritime environments: comparative analysis and practical application
- Citizen participation and collabourative governance methodologies in strategic planning processes for floating cities
- Case studies: Successful implementation of strategic management and risk mitigation in offshore urban planning projects
06
Technological innovation and sustainability in floating infrastructure and high complexity offshore urbanism
- Fundamentals and advances in intelligent materials for offshore infrastructure: self-repairing compounds, nano-coatings and adaptive structural systems
- Integration of floating renewable energy: design and optimisation of offshore wind farms, floating solar panels and wave and tide energy conversion systems
- Multiphysical simulation models for predictive analysis of structural behaviour in extreme marine and climatic conditions
- Advanced waste management and water resources in floating urban environments: on-site recycling technologies and autonomous desalination machines
- Real-time monitoring systems through IoT and sensor networks for structural integrity control, environmental quality and safety
- Sustainable urban planning in floating cities: microclimate planning, maritime ecological corridors and adaptive biodiversity
- Innovations in modular and prefabricated design for logistics facilities and efficient maintenance of urban offshore platforms
- Automation and underwater robotics applied to inspection, repair and expansion of complex floating infrastructure
- Protocols for adaptation and urban resilience to extreme events: predictive models of climate change and integrated mitigation strategies
- International regulations and standards for certification of floating infrastructures with criteria of sustainability and operational safety, including ISO, IEC and IMO recommendations
07
Design and sustainability of smart, resilient marine infrastructure for floating cities
- Fundamentals of Marine Infrastructure Design: Advanced Materials and Adaptive Construction Techniques for Offshore Environments
- Intelligent Structural Engineering: Integration of IoT sensors for real-time monitoring and predictive maintenance
- Resilient design against extreme weather events: Impact analysis, mitigation and adaptation using computational models
- Sustainable energy systems: incorporation of offshore renewable energies (wind, wind power, solar floating) and integrated storage
- Water management and water treatment: technologies for recycling, desalination and effluent management in floating cities
- Mobility and connectivity: Development of maritime transport networks, drones and autonomous vehicles for efficient logistics and low carbon footprint
- Advanced safety and operational resilience protocols: prevention, detection and response to natural and technological contingencies
- International regulations and certifications applicable to intelligent marine infrastructure: environmental compliance, safety and quality
- Offshore urban planning: integration of habitable, commercial spaces and marine ecosystems to maximise functionality and sustainability
- Digital modelling and advanced simulation: Use of digital twins for design optimisation, maintenance and operation of floating cities
08
Advanced models of governance, legislation and public policies for the sustainable development of floating cities and offshore platforms
- Fundamentals of Governance in Maritime Environments: Structure, Actors and Competencies
- International legal framework applicable to floating cities and offshore platforms: UNCLOS, IMO conventions and specific treaties
- Development of local and supranational regulations for the regulation of urban marine spaces
- Advanced Collabourative Governance Models: Citizen Participation, Private Sector and Multilateral Governments
- Design of public policies aimed at environmental, economic and social sustainability in floating environments
- Legal instruments for environmental protection and management of marine resources: impact, evaluation and mitigation
- Regulation and management of offshore infrastructure: zoning, permits, security and maintenance
- Territorial and jurisdictional rights in limited maritime and high-sea spaces
- Financing mechanisms and economic models for the development and sustainability of floating cities
- Assessment of legal risks and crisis management in urban offshore environments: contingency protocols and plans
09
Technological innovation, sustainability and governance in floating infrastructures and high complexity offshore urbanism
- Fundamentals of technological innovation applied to floating infrastructures: advanced materials, intelligent systems and automation
- Sustainable design in Offshore Urbanism: Energy Efficiency Criteria, Environmental Impact and Circularity in Resources
- Emerging technologies for remote monitoring and control: IoT sensors, SCADA platforms, and predictive analysis
- Integration of renewable energies in floating structures: solar, offshore wind, and green hydrogen generation
- Advanced computing models for hydrodynamic and structural simulation in extreme marine conditions
- International regulations and regulatory frameworks applicable to governance of floating cities and offshore platforms
- Risk Management and Urban Resilience: Planning for Severe Climate Events and Natural Disasters in Maritime Environments
- Smart Governance Architectures: Integrated Management Systems, Digital Citizen Participation and Operational Transparency
- Ecological Footprint Life Cycle Assessment and High Complexity Offshore Urban Planning Projects
- Global Benchmarking Cases: Successful Implementation of Sustainable Technological Solutions in Floating Infrastructures
10
Structural and naval engineering of habitable floating platforms
- Urban floating platform typologies
- Hydrostatic and stability of large structures
- Hydroelasticity of very large structures (VLFS)
- Mooring and Anchoring Systems
- Materials and durability in marine environment
- Response to extreme waves
- Floating module connections
- Corrosion protection and biofouling
- Floating structure classification regulations
- Project of a floating urban module
11
Master’s Final Project in Floating Cities and Offshore Urban Planning
- Theoretical and Conceptual Framework: Fundamentals of Offshore Urbanism, Definition and Characterization of Floating Cities, Principles of Sustainability and Resilience Applied to Maritime Environments
- Advanced comprehensive design methodologies: parametric modelling, environmental simulation and multi-criteria analysis for optimisation of floating urban structures
- Evaluation of offshore building technologies: ultralight materials, modular structures, mooring systems and dynamic stabilisation
- Planning and zoning in ocean environments: environmental impact analysis, use of GIS and georeferencing techniques for territorial planning in open sea
- Floating city life cycle management: strategic planning, intelligent systems implementation for predictive maintenance and management of water and energy resources
- Integration of renewable energy offshore: Design and analysis of photovoltaic, wind and wind systems for urban energy self-sustainability
- International regulations and applicable regulatory frameworks: Evaluation of maritime legislation, international agreements and safety and construction standards
- Critical infrastructure design: transport networks, telecommunications, evacuation systems and emergency response in hostile marine environments
- Digital tools for comprehensive management: BIM platforms, augmented reality and IoT systems applied to urban offshore monitoring and control
- Preparation and presentation of the final project: Integration of design components, execution, sustainable evaluation and comprehensive management proposal for an offshore floating city
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, civil engineers, and urban planners interested in exploring innovative solutions for sustainable urban development and climate change adaptation.Maritime and offshore professionals seeking to specialize in the design and management of habitable and sustainable maritime infrastructure.Researchers and academics focused on new technologies, materials, and governance models for floatin
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 resilient and sustainable infrastructures
- 02Managing complex projects in marine environments
- 03Develop innovative marine habitability strategies
- 04Leading innovation in the governance of floating cities
- 05Integrating advanced technologies into offshore urban design
- 06Optimizing logistics and transport in aquatic environments
Careers
Career Opportunities
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02Offshore Urban Designer/Planner: Creation and development of urban plans adapted to floating and offshore environments.
03Marine Civil Engineering Consultant: Advising on the construction, maintenance, and adaptation of floating infrastructure.
04Marine Renewable Energy Specialist: Design and implementation of sustainable energy systems in floating cities.
05Offshore Project Manager: Leadership and coordination of construction and development projects for floating cities.
06Floating Urbanism Researcher: Development of new technologies and solutions for habitability in aquatic environments.
07Urban Sustainability and Resilience Expert: Design of strategies for sustainability and adaptation to climate change in floating cities.
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Questions
Entry Requirements
Marine and coastal environments, including the design, construction, management and sustainability of floating infrastructure and cities on the ocean.
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.
Aquatic urban environments, specifically the design, construction and management of floating cities and other offshore infrastructure.
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, Urban Planning, Environmental Sciences, Maritime Law or related field; Demonstrable professional experience in maritime construction, urban development, or coastal management projects.Language proficiency:Proficiency in English (level B2 or higher) for accessing specialized literature, participating in international forums, and writing project proposals.Documentation:Updated CV, copy of university degree, academic transcript, cover letter explaining interest in floating citie
Questions?
Frequently Asked Questions
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