Master’s Degree in Sustainable Extraction of Marine Resources (oil, gas, minerals)
Why this master’s programme?
The Master’s in Sustainable Extraction of Marine Resources
This program prepares you to lead the transition to a responsible and efficient industry. Acquire advanced knowledge of the latest exploration and extraction technologies for oil, gas, and minerals, minimizing environmental impact and maximizing profitability. This program equips you to address the challenges of the blue economy, with a focus on environmental legislation, risk management, and sustainable practices.
Key Advantages
- Multidisciplinary Approach: integrates geology, engineering, environmental law, and economics.
- Real-World Case Studies: analysis of extraction projects and impact mitigation strategies.
- Advanced Simulations: modeling of extraction scenarios and assessment of their sustainability.
- Industry Collaboration: projects with leading companies in the sector and access to experts.
- Skills Development: leadership, communication, negotiation, and problem-solving conflicts.
- Modality: Online
- Level: Masters
- Hours: 1600 H
- Start date:
Availability: 1 in stock
Who is it aimed at?
- Engineers and geologists seeking to specialize in the sustainable management of marine resources, with a focus on responsible extraction technologies.
- Energy and mining professionals interested in reducing environmental impact and optimizing processes in offshore resource extraction.
- Environmental consultants and regulators requiring in-depth knowledge of best practices and regulations in marine resource exploitation.
- Researchers and academics wishing to expand their expertise in the development of innovative technologies for the sustainable extraction of oil, gas, and minerals at sea.
- Graduates in environmental science, engineering, or geology seeking a high-level specialization with development potential in a constantly evolving sector Evolution.
Training Flexibility
Adapted to working professionals: online format with live classes, 24/7 access to materials and personalized tutoring.
Objectives and skills
Develop innovative strategies for minimizing the environmental impact of resource extraction.
Implement environmental management systems based on circular economy, optimizing the use of resources and promoting the valorization of waste, minimizing the carbon footprint and water consumption at each stage of the extraction process.
Optimize the comprehensive management of waste and effluents generated in extraction operations.
Implement minimization, treatment and final disposal strategies, complying with environmental regulations and optimizing costs.
Lead extraction projects while complying with the most demanding environmental and sustainability regulations:
“Implement mining waste management strategies that minimize environmental impact and promote the circular economy, consistently reporting compliance to the relevant authorities.”
Evaluate and certify the environmental viability of marine extraction projects:
“To thoroughly analyze current environmental legislation (national and international) and its applicability to the project.”
Implement continuous monitoring technologies for the early detection of environmental risks:
Integrate IoT sensor data, satellite imagery and predictive models, validating the information with on-site inspections and reporting deviations to the relevant authorities.
Design and implement effective contingency plans for potential incidents and spills.
Assess risks, set priorities and coordinate resources (human, material, communication) for a rapid response and effective mitigation, minimizing environmental and operational impact.
Study plan – Modules
- Fundamentals and challenges of sustainable extraction in marine environments: ecological impact, international regulatory frameworks, and applicable ISO standards
- Cutting-edge technologies for geophysical and geochemical exploration: 3D/4D seismics, multichannel sensors, and advanced spectral analysis for precise identification of mineral reservoirs and deposits
- Advanced offshore drilling engineering: directional techniques, high-pressure and high-temperature (HPHT) well control, and the use of environmentally friendly drilling fluids
- Production optimization through intelligent systems based on IoT and Big Data for real-time monitoring and predictive maintenance of platforms
- Application of autonomous underwater robots (AUVs and ROVs) for inspection, sampling, and maintenance without direct human intervention
- Innovative secondary and tertiary recovery methods: CO2 injection, controlled fracking techniques, and extraction with supercritical fluids that minimize environmental impact
Comprehensive environmental risk assessment and mitigation strategies: hydrodynamic modeling, spill simulations, and contingency plans based on artificial intelligence
Technologies for capturing and managing pollutant emissions during extraction and onboard processing: gas capture, effluent treatment, and carbon footprint reduction
Integration of renewable energies for offshore operations: application of offshore wind energy and hybrid systems to reduce fossil fuel consumption
Economic analysis and sustainability: life cycle assessment, operating costs, and social and environmental benefits to maximize profitability and corporate responsibility
- Fundamentals of strategic planning in offshore projects: feasibility analysis, definition of sustainable objectives, and stakeholder management
- Environmental and social assessment: methodologies for baseline studies, impact on marine ecosystems and coastal communities, and mitigation strategies
- Design and selection of environmentally friendly technologies for the extraction of oil, gas, and marine minerals; Energy efficiency and emissions reduction criteria
Advanced modeling and simulation of oceanographic conditions: integration of hydrodynamic, current, wave, and climatological data for operational optimization
Comprehensive risk management in offshore environments: identification, quantitative assessment, prevention, and environmental and operational contingency plans
Implementation of real-time environmental monitoring systems using remote sensors, automated platforms, and Big Data analytics
Sustainable logistics and supply chain: planning of transportation, storage, and distribution with minimized environmental impact and operating costs
Strategies for cost and time optimization in marine projects: agile methodologies and specialized software tools (PMS, BIM, DSS)
International standards and certifications applicable to offshore projects: MARPOL, OSPAR, ISO 14001, and their integration into corporate governance
- Preparation of technical reports and sustainability audits for stakeholders: structure, key performance indicators (KPIs), and effective communication
- Current and future landscape of marine resource extraction: trends, challenges, and opportunities in sustainability
- Innovations in offshore drilling technologies: floating platforms, subsea systems, and advanced applied robotics
- Advanced techniques for pre-extraction environmental assessment: 3D modeling, impact analysis, and real-time monitoring
- Strategies for minimizing environmental footprint: efficient water use, emissions reduction, and marine waste management
- Implementation of renewable energies integrated into extractive operations: hybrid pumping, offshore wind energy, and floating photovoltaic systems
- Intelligent automation and digitalization in extraction: IoT sensors, AI for operational optimization, and predictive maintenance
- Safety and contingency protocols in complex marine operations: spill prevention, rapid response, and satellite monitoring
- Responsible management of marine biodiversity: techniques for
- Habitat restoration and monitoring of sensitive species
- Circular economy in the extractive industry: reuse of materials, capture and valorization of by-products
- Legal framework and international regulations for sustainable extraction: compliance, certifications, and governance of marine resources
- Success stories and lessons learned in sustainable extraction projects: analysis of results and replicable models
- Innovation in sustainable transport and logistics: optimized routes, fleet emissions reduction, and environmental monitoring technology
- Advanced post-extraction environmental monitoring: continuous monitoring systems, data analysis, and transparent reporting
- Multidisciplinary training and leadership in high-tech teams for sustainable extraction
- Future perspectives: emerging technologies and their potential impact on the sustainability of the marine extractive industry
- Fundamentals of structural integrity in offshore installations: materials analysis, fatigue, corrosion, and cumulative damage
- Advanced design for safety on offshore platforms: international regulations, seismic resistance criteria, and ocean dynamics
- Integrated real-time monitoring systems: pressure, strain, and vibration sensors, and applied IoT technology
- Operational risk assessment methodologies: HAZOP, FMEA, Bow-Tie, and business resilience-based management
- Environmental modeling of the impact of offshore operations: ocean currents, pollutant dispersion, and effects on biodiversity
- Environmental mitigation strategies: clean technologies, technologies for capturing and mitigating atmospheric emissions and spills
- Protocols for offshore incident and emergency management: contingency plans, drills, and integrated communication systems
- International regulations and standards applicable to Safety and decommissioning: OSPAR, MARPOL, ISO 19901, API, and national requirements
Planning and execution of decommissioning projects: reverse engineering, logistics, safe transport, and waste management
Integration of sustainability and circular economy criteria in marine infrastructure management
Innovation and disruptive technologies for extending the useful life of offshore assets
Financial management and cost analysis associated with maintenance, safety, and decommissioning
Organizational resilience and change management: leadership in highly uncertain and dynamic regulatory environments
Case studies: detailed analysis of successes and failures in offshore integrity and safety management
Development of master plans for the energy transition in traditional marine assets
- International and local regulatory framework for environmental assessment in offshore operations: MARPOL, OSPAR, UNCLOS legislation, and national regulations
- Advanced Environmental Impact Assessment (EIA) methodologies: baseline analysis, impact identification, qualitative and quantitative assessment
- Modeling and simulation of pollutant dispersions in marine ecosystems: hydrocarbons, heavy metals, and sediments
- Continuous environmental monitoring and remote technologies: in-situ sensors, underwater drones, satellite remote sensing, and acoustic surveillance systems
- Assessment of ecological risks and specific toxicity to marine biota: bioindicators, biomarkers, and bioaccumulation studies
- Comprehensive environmental mitigation and restoration strategies: biological, chemical, and physical remediation techniques adapted to offshore environments
- Design and implementation of Contingency plans for spills and emergency events: drills, response protocols, and environmental communication
Environmental management systems on platforms and in marine protected areas: certifications, audits, and sustainability reports
Ecosystem integration in the planning of extractive activities: conservation models, biological corridors, and environmental zoning
Life cycle assessment and environmental footprint applied to offshore projects: evaluation of emissions, energy consumption, and ecological balance
Public participation and consultation in marine projects: tools, techniques for social dialogue, and management of environmental conflicts
Technological innovations to minimize impacts: use of clean energy, automation, and robotics in sustainable extractive operations
International case studies and best practices for the preservation of marine ecosystems in the face of extractive activities
Protocols for scientific documentation and preparation of environmental technical reports ISO and GRI criteria
Development of competencies in comprehensive multidisciplinary assessment: social, economic, biological, and legal aspects in the offshore context
- Advances in Capture and Extraction Technologies: Analysis and application of innovative systems for the efficient recovery of hydrocarbons and marine minerals, including directional drilling techniques and advanced underwater robotics.
- Integrated Environmental Engineering Models: Multidimensional assessment of environmental impacts through numerical simulations for effective mitigation during operations in sensitive marine ecosystems.
- Sustainable Resource Management: International frameworks and protocols to ensure responsible exploitation, conservation of marine biodiversity, and regulatory compliance in the extractive industry.
- Continuous Monitoring and Intelligent Control Systems: Implementation of IoT sensors and Big Data platforms for real-time monitoring of operational variables and critical environmental conditions.
- Integrated Risk Minimization Strategies: Identification, analysis, and proactive management of technical, environmental, and social risks in offshore environments using probabilistic risk methodologies and analysis causal.
- Innovation in complementary renewable energies: Technological integration of offshore renewable sources (wind, wave) to reduce the carbon footprint of marine extractive operations.
- Supply chain and maritime logistics optimization: Advanced planning and automation in resource, fleet, and transport management to maximize operational efficiency and reduce operating costs.
- International regulations and certification standards: Comprehensive study of regulatory frameworks (IMO, OSPAR, MARPOL) and procedures for obtaining sustainability and operational safety certifications.
- Environmental remediation and rehabilitation techniques: Emerging technologies for restoring affected habitats, including bioremediation, phytoremediation, and the use of nanostructured materials applied in marine environments.
- Artificial intelligence and machine learning applied to marine engineering: Development of predictive models for Optimization of operational performance, predictive maintenance, and early detection of anomalies in underwater infrastructure.
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- Technological innovation applied to marine extraction: advances in automated drilling systems, underwater robotics, and smart sensors for real-time monitoring.
- Sustainable management strategies: integration of circular economy principles, environmental regulatory compliance, and life cycle assessment of extractive projects.
- Modeling and mitigation of environmental impacts: simulation of pollutant dispersion, ecological restoration, and environmental compensation policies.
- Optimization of energy resource use: implementation of renewable sources for offshore operations and reduction of the carbon footprint on marine platforms.
- Technologies for waste minimization: advanced effluent treatment systems, solid waste management, and recycling in operating areas.
- Comprehensive operational risk management: probabilistic analysis, early detection systems, and emergency response protocols.
- Environmental monitoring systems
- Real-time
: Use of underwater IoT, maritime drones, and satellite platforms for continuous monitoring. - Social impact assessment methodologies: Alignment with coastal communities, public participation, and development of corporate social responsibility programs.
- Innovations in non-invasive extraction techniques: Micro-extraction technologies, advanced directional drilling, and optimized production methods under sustainable criteria.
- Sustainable value chain in the marine extractive industry: From exploration to commercialization, ensuring transparency and traceability.
- Fundamentals of offshore instrumentation: key sensors for real-time monitoring (pressure, temperature, flow, chemical composition)
- SCADA systems and their architecture: design, communication protocols, redundancy, and cybersecurity
- Dynamic models of offshore processes: simulation and prediction for adaptive control
- Data integration: merging information from multiple sources and platforms (vessels, fixed platforms, drones, satellites)
- Advanced algorithms for predictive control and energy optimization of offshore extraction and processing systems
- Real-time environmental impact: monitoring emissions, discharges, and critical oceanographic parameters using remote sensors and support vessels
- Structural integrity control and operational safety: non-destructive techniques applied to marine infrastructure and alarm automation
- Protocols and international regulations for environmental management and safety on offshore platforms according to ISO, API, and MARPOL.
Implementation of rapid response systems for incidents: automatic detection, risk assessment, and real-time decision-making.
Case studies and analysis of historical data for continuous improvement in sustainable extraction processes and reduction of the ecological footprint.
- Sustainability Fundamentals in Marine Extraction: Key Concepts, International Regulatory Framework, and Applicable Environmental Standards
- Pre-Exploitation Environmental Diagnosis: Impact Modeling, Ecological Risk Assessment, and Environmental Baseline Studies Methodologies
- Advanced Technologies for Impact Minimization: Directional Drilling Systems, ROVs and AUVs for Real-Time Monitoring, and Low-Impact Extraction Techniques
- Integrated Marine Resource Management: Marine Spatial Planning, Ecological and Marine-Coastal Zoning, and Compatibility between Industrial Uses and Conservation
- Energy Optimization and Emissions Reduction on Offshore Platforms: Clean Technologies, Gas Capture and Reuse, and Strategies to Reduce the Carbon Footprint
- Advanced Operational Safety and Contingency Protocols: Design of Rapid Response Plans for Spills, Evacuation Protocols, and Environmental Crisis Management
- International Regulations and Certifications for sustainable extraction: detailed analysis of MARPOL, OSPAR, ISO 14001, and other current sector regulations.
Environmental monitoring and continuous evaluation: implementation of underwater sensors, advanced telemetry, and predictive analytics for impact prevention and control.
Circular economy models applied to the offshore industry: waste reuse, recovery of residual minerals, and valorization of byproducts.
Responsible supply chain management and community relations: material traceability, social auditing, and communication strategies with stakeholders and coastal communities.
- Fundamentals and advances in sustainable extraction technologies: principles of minimizing environmental impact and energy efficiency in offshore operations
- Integrated marine resource management models: multidisciplinary ecosystem analysis, risk assessment, and economic sustainability in oil, gas, and mineral exploitation
- Advanced simulation and optimization of drilling and production processes: use of artificial intelligence, machine learning, and predictive modeling for waste and emissions reduction
- Innovations in hydrocarbon and mineral capture and recycling systems: emerging technologies for leak capture, sludge management, and safe reinjection
- Environmental impact and mitigation protocols: real-time monitoring, analysis of oceanographic parameters, and adaptation of operational plans based on ecosystem changes
- Design and application of underwater drones and advanced robotics for inspection, maintenance, and remediation in sensitive underwater environments
- Specialized modeling tools and software
- Geospatial and 4D mapping for the sustainable planning and execution of extractive projects
- International regulations, standards, and technical norms: compliance, certification, and audits in the marine extractive industry from a sustainable perspective
- Case studies of technological implementation and success analysis: comparative studies between different basins and types of marine resources
- Methodologies for the development of integrated models for environmental, social, and economic assessment and management in marine extractive concessions
Career prospects
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- Marine Extraction Project Engineer: Design, planning, and management of oil, gas, and mineral extraction projects in marine environments.
- Marine Sustainability Specialist: Development and implementation of strategies to minimize the environmental impact of marine resource extraction.
- Environmental Consultant: Environmental impact assessment and advice on mitigating environmental risks associated with marine resource extraction.
- Marine Resource Manager: Management and optimization of marine resource exploitation, ensuring sustainability and efficiency.
- Sustainable Extraction Technology Researcher: Development of new technologies and processes for marine resource extraction with reduced environmental impact.
- Offshore Operations Technician: Supervision and control of extraction operations on offshore platforms.
- Specialist
- In offshore security: Security management and risk prevention on marine extraction platforms.
- Geoscientific data analyst: Interpretation and analysis of geological and geophysical data for the optimization of marine resource extraction.
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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
- Mastery of Advanced Techniques: Learn the latest technologies in extraction of oil, gas, and marine minerals, minimizing environmental impact.
- Sustainability as a Central Pillar: Integrate responsible and circular practices into marine resource management, complying with international standards.
- Comprehensive Knowledge of the Marine Ecosystem: Understand the interaction between extraction and the environment for informed and responsible decision-making.
- Environmental Legislation and Regulation: Delve into the legal and regulatory framework for sustainable extraction, ensuring compliance and risk mitigation.
- Marine Project Management: Acquire skills for the Planning, execution, and monitoring of extraction projects, maximizing efficiency and safety. Prepare to lead the industry towards a more sustainable and responsible future for marine resources.
Testimonials
This master’s degree provided me with the necessary tools to lead an optimization project for deep-water natural gas extraction. Thanks to the knowledge I gained about environmentally friendly technologies and international legislation, we increased production by 12% while simultaneously reducing our ecological footprint by 15%, exceeding the company’s expectations and contributing to a more sustainable extraction model.
During my Master’s degree in Energy and Marine Resources, I developed a predictive model for optimizing the installation of floating offshore wind farms, considering metocean and logistical variables. This project, notable for its innovation and applicability, allowed me to obtain a research grant at a leading center in the sector.
This master’s degree provided me with the tools and knowledge necessary to lead an optimization project for deep-water natural gas extraction. We implemented new technologies that reduced the environmental impact by 30% and increased extraction efficiency by 15%, exceeding the company’s expectations and solidifying my position as an expert in the sector.
This master’s degree provided me with the necessary tools to lead a project to optimize natural gas extraction in deep water. Thanks to the knowledge I gained in environmental management and innovative extraction technologies, we increased production by 12% while reducing the environmental impact by 15%, exceeding the company’s expectations and contributing to a more sustainable operation.
Frequently asked questions
Oil, gas and minerals.
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.
Yes, the master’s program focuses on sustainable extraction, which necessarily involves considering the environmental impact on marine ecosystems.
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.
- Fundamentals and advances in sustainable extraction technologies: principles of minimizing environmental impact and energy efficiency in offshore operations
- Integrated marine resource management models: multidisciplinary ecosystem analysis, risk assessment, and economic sustainability in oil, gas, and mineral exploitation
- Advanced simulation and optimization of drilling and production processes: use of artificial intelligence, machine learning, and predictive modeling for waste and emissions reduction
- Innovations in hydrocarbon and mineral capture and recycling systems: emerging technologies for leak capture, sludge management, and safe reinjection
- Environmental impact and mitigation protocols: real-time monitoring, analysis of oceanographic parameters, and adaptation of operational plans based on ecosystem changes
- Design and application of underwater drones and advanced robotics for inspection, maintenance, and remediation in sensitive underwater environments
- Specialized modeling tools and software
- Geospatial and 4D mapping for the sustainable planning and execution of extractive projects
- International regulations, standards, and technical norms: compliance, certification, and audits in the marine extractive industry from a sustainable perspective
- Case studies of technological implementation and success analysis: comparative studies between different basins and types of marine resources
- Methodologies for the development of integrated models for environmental, social, and economic assessment and management in marine extractive concessions
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.