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Master’s Degree in Nautical Cartography and Advanced Hydrography

Why this master’s programme?

The Master in Nautical Cartography and Advanced Hydrography

This program provides you with the tools and knowledge necessary to excel in the field of creation and management of next-generation nautical charts. You will learn to master bathymetric data acquisition techniques, geospatial information processing, and production of electronic (ENC) and traditional charts. This program will enable you to contribute to navigational safety and the sustainable management of marine resources.

This program provides you with the tools and knowledge necessary to excel in the field of creation and management of state-of-the-art nautical charts.

Differential Advantages

  • Specialized Software: Expert handling of industry-leading hydrographic and cartographic processing software.
  • Real-World Hydrographic Surveys: Participation in field projects to gain hands-on experience in data acquisition.
  • International Standards: In-depth knowledge of IHO (International Hydrographic Organization) standards and other relevant regulations.
  • 3D Visualization and Advanced Analysis: Generation of three-dimensional seabed models and geospatial analysis for decision-making.
  • Career Opportunities: Preparation for work in hydrographic companies, government institutions, and international organizations.
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Price: 3.700,00 £

Master’s Degree in Nautical Cartography and Advanced Hydrography

  • Modality: Online
  • Level: Masters
  • Hours: 1600 H
  • Start date: 25-04-2026

Availability: 1 in stock

Who is it aimed at?

  • Cartographers and surveyors seeking to specialize in the production of high-precision nautical charts and the analysis of hydrographic data.
  • Hydrographers wishing to delve deeper into advanced surveying techniques, processing, and modeling of bathymetric data for maritime safety.
  • Coastal and environmental engineers interested in the application of nautical cartography and hydrography for the sustainable management of coastal zones and risk assessment.
  • Naval officers and maritime professionals needing to update their knowledge of international standards, cutting-edge technologies, and marine geospatial information management.
  • Graduates in marine sciences, geography, or related engineering fields aspiring to a High-level professional career in the field of nautical cartography and hydrography.

Flexibility and applicability
 Program designed for professionals: flexible online methodology, practical projects, and focus on the latest trends in the sector.

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Objectives and skills

Managing complex hydrographic projects:

“Plan, execute and control projects, integrating bathymetry, tide, current and meteorological data, ensuring the quality, accuracy and security of information for decision making.”

Interpreting and analyzing bathymetric data for the creation of nautical charts:

“Identify and correct systematic and random errors in bathymetric data, applying IHO S-44 and S-100 standards.”

Mastering the use of specialized software for processing and visualizing marine geospatial information:

“Generate cartographic products, analyze bathymetric data and model oceanographic information for decision-making.”

Apply international regulations and quality standards in the production of nautical cartographic products:

“Adapt the IHO symbology and specifications (S-4, S-57, S-100) to ensure the accuracy, clarity, and uniformity of nautical information.”

Lead hydrographic teams in the acquisition and processing of data for maritime safety:

“Implement hydrographic standards (IHO S-44) and best practices in survey planning, quality control, and uncertainty management.”

Develop and implement innovative solutions for hydrographic information management:

“Design and integrate robust geospatial databases, incorporating accurate bathymetric data, dynamic tidal models, and interactive visualization systems for informed decision-making.”

Study plan – Modules

  1. Fundamentals of digital nautical charting: historical evolution, international standards, and data formats (S-57, S-101)
  2. Advanced processing of hydrographic data: acquisition, correction, and validation of bathymetric data using multibeam echosounders and laser LiDAR
  3. Integration of hydrographic sensors: principles and technologies of acoustic, gravimetric, and magnetometric sensors applied to coastal and offshore surveys
  4. Numerical modeling in hydrography: generation of underwater digital terrain models (DTMs), spatial interpolation, and uncertainty analysis
  5. Use of specialized Geographic Information Systems (GIS) for the production of digital nautical charts: tools, plugins, and interoperability standards
  6. Application of artificial intelligence and machine learning techniques in the automatic detection of objects and anomalies in hydrographic data
  7. International standards and regulations for the production and
  8. Updating electronic nautical charts and related products
  9. Advanced methodologies for the planning, execution, and control of hydrographic surveys using autonomous and unmanned vehicles (AUVs/USVs)
  10. Evaluation and mitigation of systematic and random errors in hydrographic sensors: calibration, correction, and data quality control
  11. Development of advanced applications for the dynamic and real-time management of hydrographic and cartographic databases in critical marine environments
  1. Physical and mathematical foundations of LIDAR technology: principles of laser pulse emission and reception, propagation speeds in water and air
  2. Design and configuration of airborne and ground-based LIDAR systems for coastal and marine surveys with a focus on millimeter accuracy
  3. Advanced LIDAR data processing: filtering, atmospheric correction, georeferencing, and generation of digital elevation models (DEMs) and digital surface models (DSMs)
  4. Technical introduction to multibeam sonar (MBES) systems: transducer types, operating frequencies, beam patterns, and spatial resolution
  5. Detailed planning of hydrographic surveys: acquisition parameters for simultaneous integration of LIDAR and multibeam sonar data in complex coastal environments
  6. Methodologies for cross-calibration and spatiotemporal alignment of LIDAR and MBES data, ensuring consistency and error elimination Systematics
  7. Joint management and processing of LiDAR and sonar datasets: fusion, interpolation, and creation of high-fidelity underwater 3D models
  8. Application of acoustic and optical refraction correction algorithms in water to improve the cartographic accuracy of underwater relief and detailed bathymetry
  9. Study of real-world cases and comparative analysis of efficiency and accuracy between conventional methods and integrated LiDAR-multibeam sonar systems in nautical charting
  10. Generation of cartographic products certified according to international standards (IHO S-44, S-101) using integrated data for safe navigation and advanced maritime planning
  11. Specialized software for multi-sensor data integration: review of processing platforms, automation, and visualization of three-dimensional results
  12. Regulatory and certification aspects of hydrographic surveys using LiDAR and multibeam sonar sensors: compliance with ISO, IHO, and Quality protocols

    13. Capabilities for advanced interpretation of detected geospatial anomalies and their implications in geotechnical, sedimentological, and marine environmental studies

    Optimization of time and resources in complex hydrographic campaigns through integrated planning and pre-simulation of LIDAR-sonar acquisition

    Future trends in sensors and platforms for underwater mapping: autonomous drones, artificial intelligence for real-time analysis, and new materials in acoustic transducers

  1. Fundamentals and advances in digital nautical cartography: evolution from traditional methods to solutions based on GIS (Geographic Information Systems) and dynamic cartography
  2. Advanced hydrographic sensors: operation, integration, and calibration of multifrequency echo sounders, side-scan sonars, and marine LIDAR systems for high-resolution underwater detection and mapping
  3. Techniques for processing and filtering hydrographic data: statistical modeling, spatial interpolation, noise correction, and anomaly detection in multidimensional datasets
  4. High-precision positioning and navigation systems: use of differential GNSS (RTK, DGPS), INS (Inertial Navigation Systems), and complex sensor fusion algorithms for underwater georeferencing
  5. Applications of acoustic technology for underwater mapping: analysis of wave propagation, effects of marine fauna, and bottom morphology Mapping quality

    6. Real-time integration and processing: data acquisition, synchronization, and analysis using onboard platforms with high-performance processing capabilities and satellite communication.

    Digital Terrain Models (DTMs): generation, visualization, and validation with an emphasis on geomorphology, bathymetry, and marine geological hazards.

    International regulations and technical standards applied to nautical charting and hydrographic sensors, including IHO S-100 and related SOLAS regulations.

    Practical applications in underwater exploration and mapping: autonomous underwater vehicles (AUVs/ROVs), mapping of submerged infrastructure, and environmental impact studies.

    Innovation and future trends: artificial intelligence and machine learning in data processing, survey automation, and development of intelligent and interactive electronic charts.

  1. Fundamentals of high-performance hydrographic surveys: design, strategic planning, and comprehensive management focused on resource optimization and cartographic accuracy
  2. Advanced methodologies in bathymetric data acquisition: integration of multibeam echo sounders (MBES), airborne LiDAR, and high-precision GNSS systems for hydrographic surveys
  3. Advanced bathymetric processing: filtering techniques, error correction, digital seabed modeling (DTM), and surface generation by subtracting noise and artifacts for maximum fidelity
  4. Automation and quality control in hydrographic surveys: real-time and post-processing data validation protocols with emphasis on the detection and correction of anomalies and outliers
  5. International regulations and applicable standards: compliance with IHO S-44 Edition 6, accuracy and coverage criteria for official nautical charts
  6. Generation of electronic nautical charts (ENC) in accordance with
  7. S-57 and S-101 specifications: structure, attributes, object coding, and dynamic updating
  8. Specialized instrumentation and software for the creation and monitoring of ENC: comparative analysis of GIS tools, ENC editing software, and hydrographic database management systems
  9. 3D visualization and augmented reality applications for safe navigation: three-dimensional modeling of the underwater relief and advanced simulations to support decision-making in ports, restricted routes, and complex areas
  10. Comprehensive risk and safety management in navigation based on accurate hydrographic data: analysis of hazards, anchorage areas, leading lines, and maritime traffic corridors
  11. Implementation of electronic ENC updating and distribution systems: S-63 standards for encryption and secure distribution, along with strategies for continuous maintenance of the cartographic base
  12. Practical cases and advanced exercises: design and evaluation of real-world campaigns, analysis of complex bathymetric datasets, and Generation of detailed technical reports for regulatory bodies

    Innovations and trends in nautical cartography and hydrography: future perspectives on sensors, artificial intelligence applied to data processing, and automation of hydrographic monitoring

  1. Fundamentals of Digital Terrain Modeling (DTM) applied to hydrographic environments: acquisition of bathymetric and topographic data and their multisensor integration.
  2. Advanced algorithms for DTM generation and optimization: spatial interpolation, surface analysis, and elimination of systematic and random errors in hydrographic data.
  3. Automation techniques for the capture, processing, and validation of hydrographic data using LiDAR, multibeam, and single-beam echosounders.
  4. Protocols for the application of international standards S-44 and S-57 in the automated production of digital nautical charts, including quality assessment and conformity control.
  5. Implementation of GIS systems for advanced geospatial analysis in nautical cartography: integration of thematic layers, risk analysis, and dynamic scenario modeling.
  6. Tools and frameworks for the comprehensive management of Large volumes of hydrographic data: spatial databases, metadata, interoperability, and remote access.

    Workflow automation using Python and R scripting for the massive processing and real-time updating of cartographic and hydrographic information.

    Application of artificial intelligence and machine learning in seabed classification, anomaly detection, and prediction of morphodynamic changes.

    Implementation of IoT technologies and onboard systems for the autonomous collection of real-time hydrographic data and its integration with cartographic platforms.

    Quality assurance, traceability, and digital certification methodologies in cartographic production for use in civil and military navigation.

    Advanced case studies of automation in cartographic production for ports, canals, and strategic shipping routes, including cost-benefit analysis and operational efficiency.

    Development of interactive dashboards and advanced visualization systems for data-driven decision-making. Integrated hydrographic and modeling systems.

    Future perspectives and technological trends in the automation and optimization of nautical and hydrographic mapping processes, focused on sustainability and maritime safety.

    Future perspectives and technological trends in the automation and optimization of nautical and hydrographic mapping processes, focused on sustainability and maritime safety.

  1. Fundamentals and basic principles of hydrographic sensors: physical principles, sensor types, and applications in nautical charting
  2. Integration of high-precision GNSS systems: RTK/PPP differential positioning techniques and multisensor fusion to improve geospatial accuracy
  3. Multibeam echo sounders and next-generation technologies for bathymetric data acquisition: configuration parameters, calibration, and signal processing
  4. Inertial Navigation Systems (INS): operation, estimation algorithms, and drift compensation for exploration in complex environments
  5. Implementation of underwater LiDAR and advanced acoustic remote sensing: operating principles and advantages in high-resolution mapping
  6. Integration and synchronization of autonomous and manned platforms: autonomous underwater vehicles (AUVs), remotely operated vehicles (ROVs), and hydrographic vessels
  7. Advanced processing of hydrographic data: filtering,
  8. Sensor adjustment, geodetic corrections, and three-dimensional modeling of the seabed
  9. Correction of errors in sensors due to environmental and dynamic interference: mitigation techniques and continuous calibration
  10. Automation and intelligent control systems for real-time data acquisition: applications of artificial intelligence and machine learning in hydrocartography
  11. Interoperable data integration protocols: standard formats (S-57, S-100), interoperability, and geospatial database management systems
  12. Evaluation of the accuracy and reliability of data in nautical charting to support safe navigation and maritime risk management
  13. Planning and execution methodologies for hydrographic surveys based on advanced technologies: design of sampling and optimal routes for underwater mapping
  14. International standards and technical certification in underwater exploration and mapping using high-precision sensors
  15. Case studies and real-world applications: deployment of integrated systems

    16. in deep-sea mining, nautical archaeology, coastal engineering, and environmental studies

    Emerging trends and the future of hydrocartography technology: remote sensing, 4D point clouds, and underwater digital twins for integrated marine environmental management

  1. Fundamentals of emerging technologies in nautical cartography: evolution, trends, and current challenges
  2. Integrated hydrographic data acquisition systems: multibeam echosounders, marine LIDAR, and advanced acoustic sensors
  3. Processing and analysis of geospatial data: specialized GIS software, digital bottom model extraction, and topographic calibration
  4. Integration of high-precision GNSS systems with cartographic platforms for accurate real-time georeferencing
  5. Application of artificial intelligence and machine learning technologies for automatic classification of hydrographic data and anomaly detection
  6. Development and use of interoperable platforms based on international standards (IHO S-100 and derivatives) for advanced nautical data management
  7. Validation and quality control methodologies in obtaining digital hydrographic and cartographic information
  8. Implementation of
  9. Real-time monitoring systems for the dynamic updating of nautical charts and hydrodynamic alerts
  10. Integrated environmental impact studies and hydrodynamic modeling with applications in sustainable maritime planning and management
  11. Standards, certifications, and best practices for advanced projects in nautical cartography and professional hydrography
  12. Case studies: technological integration in complex hydrographic surveys and analysis of operational results in real-world scenarios
  13. Design of multidisciplinary projects incorporating emerging technologies for resource optimization and risk reduction in nautical cartography
  1. Fundamentals of Digital Hydrography: Acquisition, Calibration, and Validation of Raw Data
  2. Advanced Processing of Multibeam Echosounders and Marine LiDAR Systems for Bathymetric Profile Generation
  3. Hydrodynamic Correction and Filtering: Error Modeling, Noise Suppression, and Artifact Removal in Surveys
  4. Integration and Temporal Synchronization of Multi-Sensor Data: GNSS, INS, Echosounders, SCADA, and Marine Meteorology
  5. Development and Optimization of 3D Numerical Models for Bathymetric Analysis and Hydrographic Modeling of the Seabed
  6. Application of Geographic Information Systems (GIS) in the Interpretation and Spatial Analysis for Advanced Nautical Cartography
  7. Automatic Generation of Vector and Raster Nautical Charts Applying S-57 and S-101 Standards, Ensuring Accuracy and International Compliance
  8. Three-Dimensional Modeling of Marine Environments

    9. Coastal areas: mapping of substrates, benthic habitats, and environmental risk assessment

    3D visualization and representation for maritime scenario simulations and decision support in coastal management and naval safety

    Environmental impact analysis through hydrodynamic modeling and simulation of pollutant dispersion in marine ecosystems

    Use of artificial intelligence and machine learning for automated classification of hydrographic data and prediction of geomorphological changes

    Advanced quality, metadata, and traceability protocols in complex hydrographic projects in accordance with international standards

    Development of technical reports and cartographic documentation for naval operational use and support for maritime scientific research

    Implementation of emerging technologies in hydrocartography: maritime drones, autonomous underwater vehicles (AUVs), and next-generation sensors

    Case studies and integrated projects: development of three-dimensional models for updating official charts and environmental studies

  1. Fundamentals and principles of advanced sensors: types, characteristics, accuracy, and applications in nautical charting
  2. Multisensor integration in hydrographic systems: temporal synchronization, data fusion, and results optimization
  3. High-precision GNSS technologies: RTK systems, PPP, differential corrections, and error management in marine environments
  4. Hydrological and oceanographic instrumentation: multibeam echosounder profiles, LIDAR, and acoustic sensors for seabed mapping
  5. Acquisition platforms: manned and unmanned vehicles (ROVs, AUVs), smart buoys, and marine drones for hydrographic surveys
  6. Advanced data processing: filtering algorithms, noise correction, spatial interpolation, and generation of underwater digital elevation models (DEMs)
  7. Systems
  8. Geodetic reference models: ellipsoidal models, local geoids, and coordinate transformation for cartographic accuracy
  9. Digital modeling and three-dimensional interpretation: visualization, submarine relief analysis, and predictive simulations for safe navigation
  10. Applications of artificial intelligence and machine learning in anomaly detection and automatic classification of bathymetric features
  11. Integration into GIS platforms and ECDIS systems: international standards, interoperability, and dynamic updating of cartographic databases
  12. Regulations and quality in nautical charting: IHO standards, certifications, and best practices in advanced hydrographic surveys
  13. Planning and execution of hydrographic campaigns using integrated technologies for high-resolution underwater exploration
  14. Project management in advanced nautical charting: risk assessment, schedules, resources, and cost analysis
  15. Case studies and practical applications: surveys in coastal areas

    16. complex underwater obstacle detection and official chart updates

    Technological innovation and future trends: emerging sensors, automation, and digitization in the hydrographic and maritime cartographic field

  1. Advanced methodologies for hydrographic data acquisition: multibeam scanning, LIDAR sensors, and autonomous underwater systems
  2. Processing and analysis of geospatial data: correction techniques, noise filtering, and three-dimensional modeling applied to marine cartography
  3. Integration of high-precision GNSS systems with inertial measurements and acoustic sensors for reliable underwater positioning
  4. Development of hybrid mapping platforms: remotely operated vehicles (ROVs), autonomous underwater vehicles (AUVs), and shipboard equipment
  5. Optimization of multisensor data fusion algorithms for generating digitized nautical charts according to IHO S-100 standards
  6. Application of advanced georeferencing and orthorectification techniques in complex underwater environments
  7. Design and evaluation of integrated workflows for the production of high-precision nautical charts: from data collection to Publication

    8. Use of artificial intelligence and machine learning for the automatic interpretation of bathymetric features and submerged obstacles

    Implementation of quality control and validation systems in accordance with international standards to guarantee the reliability of the final work

    Presentation and technical defense of the project: integration of technologies, results obtained, and innovative contribution to advanced nautical cartography

Career prospects

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  • Hydrographer: Surveying and processing bathymetric data for the creation of nautical charts.
  • Nautical Cartographer: Design, production, and updating of electronic and paper nautical charts.
  • Specialist in Maritime Geographic Information Systems (GIS): Development and management of geospatial databases for maritime applications.
  • Consultant in maritime and coastal engineering projects: Advising on the planning and execution of projects that require accurate bathymetric and cartographic information.
  • Researcher in oceanographic institutions and universities: Development of new techniques and technologies for hydrography and nautical cartography.
  • Hydrographic Data Quality Control Manager: Ensuring the accuracy and reliability of the information Bathymetric Surveyor.
  • Hydrographic Software and Hardware Technician: Development, support, and training in the use of specialized equipment and software.
  • Navy/Coast Guard Officer: Application of hydrographic and nautical cartographic knowledge for navigational safety and maritime defense.
  • Coastal Zone Management Specialist: Use of cartographic and hydrographic information for the planning and sustainable development of coastal zones.

“`

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

  • Cutting-Edge Cartography: Master the most advanced techniques in creating digital and traditional nautical charts.
  • Precision Hydrography: Learn to perform precise hydrographic surveys with state-of-the-art equipment.
  • Specialized Software: Proficiently use industry-leading software such as CARIS, Esri ArcGIS, and Hypack.
  • Professional Certification: Obtain an internationally recognized certification that will open doors to the job market.
  • Real-World Internships: Participate in real-world cartography and hydrography projects with prestigious companies and institutions.
Boost your career with comprehensive training that will make you an expert in Nautical Cartography and Advanced Hydrography.

Testimonials

This master’s degree provided me with the tools and knowledge necessary to lead a mapping project for a major dredging company. By applying the principles I learned about multibeam bathymetry and data processing, we were able to optimize navigation routes and reduce project costs by 15%, as well as improve safety in the area.

Luisa FernándezFirst mate
Luisa Fernández

During the Master’s in Hydrography and Applied Oceanography, I developed a predictive model of coastal currents using machine learning techniques, which improved the accuracy of predictions by 15% compared to traditional models, and which is currently being implemented by a local port management company to optimize the logistics of its operations.

Luisa FernándezCaptain
Luisa Fernández

This master’s degree provided me with the tools and knowledge necessary to lead a cartography project for a major company in the sector. I applied the advanced hydrographic concepts I had learned, optimizing the accuracy of nautical charts and improving navigational safety in the area. The project’s success resulted in increased maritime traffic efficiency and recognition from the port community.

Luisa FernandezVTS Supervisor
Luisa Fernandez

I applied the knowledge I gained from my Master’s degree in Nautical Cartography and Advanced Hydrography to lead the development of a new electronic nautical chart for an area with complex bathymetry. The result was safer and more efficient navigation, recognized by the port authority with an award of excellence for the accuracy and detail of the information provided.

Ignacio HernándezAspiring practical worker
Ignacio Hernández

Frequently asked questions

Specialization in cartography, hydrography and navigation, including areas such as marine geodesy, oceanography, coastal management and maritime safety.

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.

Yeah.

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.

  1. Advanced methodologies for hydrographic data acquisition: multibeam scanning, LIDAR sensors, and autonomous underwater systems
  2. Processing and analysis of geospatial data: correction techniques, noise filtering, and three-dimensional modeling applied to marine cartography
  3. Integration of high-precision GNSS systems with inertial measurements and acoustic sensors for reliable underwater positioning
  4. Development of hybrid mapping platforms: remotely operated vehicles (ROVs), autonomous underwater vehicles (AUVs), and shipboard equipment
  5. Optimization of multisensor data fusion algorithms for generating digitized nautical charts according to IHO S-100 standards
  6. Application of advanced georeferencing and orthorectification techniques in complex underwater environments
  7. Design and evaluation of integrated workflows for the production of high-precision nautical charts: from data collection to Publication

    8. Use of artificial intelligence and machine learning for the automatic interpretation of bathymetric features and submerged obstacles

    Implementation of quality control and validation systems in accordance with international standards to guarantee the reliability of the final work

    Presentation and technical defense of the project: integration of technologies, results obtained, and innovative contribution to advanced nautical cartography

Request information

  1. Complete the Application Form.

  2. Attach your CV/degree certificate (if you have it to hand).

  3. 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.

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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.
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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.
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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.
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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.
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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.
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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.
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