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 Sustainable Extraction of Marine Resources (oil, gas, minerals)
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…
Duration1500 h
FormatOnline
Starts14 December
Places20 / 20
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Programme overview
What is the Master’s in Sustainable Extraction of Marine Resources (oil, gas, minerals)?
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.
Programme type
Master's Degree
Study mode
Online
Duration
1,500 hours
Modules
11
Programme highlights
- 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.
Curriculum
Programme Structure
The programme is structured in 11 modules, listed below in order of study.
01
Advanced technologies and innovative strategies for the efficient and sustainable extraction of hydrocarbons and marine minerals
- Fundamentals and challenges of sustainable extraction in marine environments: ecological impact, international regulatory frameworks and applicable ISO standards
- State-of-the-art technologies for geophysical and geochemical exploration: 3D/4D seismic, multi-channel sensors and advanced spectral analysis for accurate identification of reservoirs and mineral deposits
- Advanced Offshore Drilling Engineering: Directional Techniques, High Pressure and Temperature Well Control (HPHT) and Ecological Drilling Fluid Use
- Production optimisation using smart IoT and Big Data-based systems for real-time monitoring and predictive platform maintenance
- Application of Autonomous Submarine Robots (AUVs and ROVs) for inspection, sampling and maintenance without direct human intervention
- Innovative methods of secondary and tertiary recovery: CO2 injection, controlled fracking techniques and extraction with supercritical fluids that minimise environmental impact
- Comprehensive assessment of environmental risks and mitigation strategies: hydrodynamic modelling, spill simulations and contingency plans based on artificial intelligence
- Technologies for the capture and management of polluting emissions during the extraction and processing on board: gas capture, effluent treatment and reduction of the carbon footprint
- Integration of renewable energy for offshore operations: application of offshore wind and hybrid systems to reduce fossil fuel consumption
- Economic analysis and sustainability: life cycle assessment, operating costs, and social and environmental benefits to maximise profitability and corporate responsibility
02
Optimisation and comprehensive management of offshore projects for responsible extraction of marine resources
- Fundamentals of Strategic Planning in Offshore Projects: Feasibility Analysis, Defining Sustainable Goals, and Stakeholder Management
- Environmental and Social Assessment: Methodologies for Baseline Lifting, Impact on Marine Ecosystems and Coastal Communities, and Mitigation Strategies
- design and selection of ecological technologies for the extraction of oil, gas and marine minerals; Energy efficiency and emission reduction criteria
- Advanced modelling and simulation of oceanographic conditions: integration of hydrodynamic data, currents, waves and climatology for operational optimisation
- 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 analysis
- Logistics and Sustainable Supply Chain: Transportation, Storage and Distribution Planning with Environmental Impact Minimization and Operating Costs
- Strategies for cost and time optimisation in marine projects: agile methodologies and specialised software tools (PMS, BIM, DSS)
- International regulations and certifications applicable to offshore projects: MARPOL, OSPAR, ISO 14001, and its integration into corporate governance
- Preparation of technical reports and sustainability audits for stakeholders: structure, key indicators (KPIs) and effective communication
03
Technological innovation and sustainable strategies for efficient and responsible extraction of marine resources
- Current and future landscape of marine resource extraction: trends, challenges and opportunities in sustainability
- Innovations in Offshore Drilling Technologies: Floating Platforms, Subsea Systems and Applied Advanced Robotics
- Advanced Techniques for Pre-Extract Environmental Assessment: 3D Modelling, Impact Analysis, and Real-Time Monitoring
- Environmental footprint minimisation strategies: efficient water use, emission reduction and marine waste management
- Implementation of integrated renewable energies in extractive operations: hybrid pumping, offshore wind energy and floating photovoltaic systems
- Intelligent automation and digitization in extraction: IoT sensors, AI for operational optimisation and predictive maintenance
- Security and contingency protocols in complex marine operations: spill prevention, rapid response and satellite monitoring
- Responsible management of marine biodiversity: habitat restoration techniques 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
04
Management of integrity, security and dismantling of offshore infrastructures: design, operation, environmental monitoring and business resilience
- Fundamentals of structural integrity in offshore installations: material analysis, fatigue, corrosion and cumulative damage
- Advanced design for safety on marine platforms: international regulations, seismic resistance criteria and ocean dynamics
- Integrated real-time monitoring systems: pressure sensors, deformation, vibration and applied IoT technology
- Operational Risk Assessment Methodologies: HAZOP, FMEA, Bow-TIE and Business Resilience Management
- Environmental modelling of offshore operation impact: sea currents, contaminant dispersion and biodiversity effects
- Environmental Mitigation Strategies: Clean Technologies, Capture Technologies and Mitigation of Atmospheric Emissions and Spills
- Protocols for the management of offshore incidents and emergencies: contingency plans, drills and integrated communication systems
- International regulations and standards applicable to safety and dismantling: OSPAR, MARPOL, ISO 19901, API and national requirements
- Planning and execution of decommissioning projects: reverse engineering, logistics, safe transportation and waste management
- Integration of sustainability criteria and circular economy in marine infrastructure management
05
Comprehensive Environmental Assessment and Impact Mitigation in Offshore Operations for the Preservation of Marine Ecosystems
- International and local regulatory framework for environmental assessment in offshore operations: MARPOL legislation, OSPAR, UNCLOS, and national regulations
- Advanced Environmental Impact Assessment (EIA) methodologies: Baseline analysis, impact identification, qualitative and quantitative assessment
- Modelling and simulation of polluting dispersions in marine ecosystems: hydrocarbons, heavy metals and sediments
- Continuous environmental monitoring and remote technologies: on-site sensors, submarine drones, satellite remote sensing and acoustic surveillance systems
- Ecological Risk Assessment and Specific Toxicity for Biota Marina: Bioindicators, Biomarkers and Bioaccumulation Studies
- Comprehensive Strategies for Mitigation and Environmental Restoration: 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 in platforms and marine protected areas: certifications, audits and reports of sustainability
- Ecosystem integration in the planning of extractive activities: conservation models, biological corridors and environmental zoning
- Life cycle and environmental footprint analysis applied to offshore projects: Emissions assessment, energy consumption and ecological balance
06
Technological innovation, sustainable management and integrated strategies for the responsible and efficient extraction of hydrocarbons and minerals in marine environments
- Advances in capture and extraction technologies: Analysis and application of innovative systems for the efficient recovery of hydrocarbons and marine minerals, including directed drilling techniques and advanced underwater robotics.
- Integrated Environmental Engineering Models: Multidimensional evaluation 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 minimisation strategies: Identification, analysis and proactive management of technical, environmental and social risks in offshore environments through probabilistic risk methodologies and causal analysis.
- Innovation in complementary renewable energies: Technological integration of renewable sources offshore (wind, wind power) to reduce the carboniferous footprint of marine extractive operations.
- Supply chain optimisation and maritime logistics: Advanced planning and automation in resource management, fleets and transportation to maximise operational efficiency and reduce operating costs.
- International regulations and certification standards: Extensive study of regulatory frameworks (IMO, OSPAR, MARPOL) and procedures for obtaining sustainability and safety certifications.
- Remediation and environmental rehabilitation techniques: Emerging technologies for restoration of affected habitats, including bioremediation, phytoextraction and use of nanostructured materials applied in marine environments.
- Artificial intelligence and machine learning applied to marine engineering: development of predictive models for optimisation of operational performance, predictive maintenance and early detection of anomalies in underwater infrastructures.
07
Advanced strategies for technological innovation, sustainable management and minimisation of impacts on the extractive of marine resources
- Technological innovation applied to marine extraction: advances in automated drilling systems, underwater robotics and intelligent sensors for real-time monitoring.
- Sustainable management strategies: Integration of principles of circular economy, environmental regulatory compliance and life cycle evaluation of extractive projects.
- Modelling and mitigation of environmental impacts: simulation of contaminant dispersion, ecological restoration and environmental compensation policies.
- Optimisation of the use of energy resources: Implementation of renewable sources for offshore operations and reduction of the carbon footprint on marine platforms.
- Waste minimisation technologies: Advanced effluent treatment systems, solid waste management and recycling in operating areas.
- Comprehensive management of operational risks: Probabilistic analysis, early detection systems and emergency response protocols.
- Real-time environmental monitoring systems: Use of submarine 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 programmes.
- Innovations in non-invasive extraction techniques: micro-extraction technologies, advanced directional drilling and optimised production methods under sustainable criteria.
- Sustainable value chain in the marine extractive industry: from exploration to marketing, ensuring transparency and traceability.
08
Real-time monitoring and control of offshore processes to maximise efficiency and minimise environmental impact on the extraction of marine resources
- Basics 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 offshore process models: simulation and prediction for adaptive control
- Data integration: Fusion of information from multiple sources and platforms (ships, fixed platforms, drones, satellites)
- Advanced algorithms for predictive control and energy optimisation of extraction and processing systems at sea
- Real-time environmental impact: Monitoring of emissions, discharges and critical oceanographic parametres through remote sensors and support ships
- Structural integrity control and operational security: non-destructive techniques applied to marine infrastructure and alarm automation
- International protocols and regulations for environmental management and safety on offshore platforms according to ISO, API and MARPOL
- Implementation of rapid incident response systems: automatic detection, risk assessment and decision making in real time
- Pilots and historical data analysis for continuous improvement in sustainable extraction processes and reduction of the ecological footprint
09
Technological and management strategies for the responsible and sustainable extraction of oil, gas and minerals in marine environments
- Fundamentals of sustainability in marine extraction: key concepts, international regulatory framework and applicable environmental standards
- Pre-operational environmental diagnosis: impact modelling, ecological risk assessment and environmental baseline methodologies (Baseline Studies)
- Advanced Impact Minimization Technologies: 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 optimisation and emission reduction on offshore platforms: clean technologies, gas capture and reuse, and strategies to reduce carbon footprint
- Advanced safety protocols and contingencies: Design of rapid spill response plans, evacuation protocols and environmental crisis management
- International regulations and certifications for sustainable extraction: detailed analysis of Marpol, OSPAR, ISO 14001, and other current sectoral regulations
- Environmental Monitoring and Continuous Assessment: Implementation of Submarine Sensors, Advanced Telemetry and Predictive Analysis for Impact Prevention and Control
- Circular economy models applied to the offshore industry: reuse of waste, recovery of residual minerals and recovery of by-products
- Responsible management of the supply chain and community relations: traceability of materials, social auditing and communication strategies with stakeholders and coastal communities
10
Seabed Mining and New Ocean Mineral Resources
- Polymetallic nodules, sulfides and cobalt crusts
- Prospecting and exploration of marine minerals
- Deepwater Collection Technologies
- Lifting and Processing Systems
- International seabed authority
- Mining code and exploration licences
- Environmental impacts in the deep sea
- Moratoriums and international debate
- Critical Minerals and Energy Transition
- Project feasibility assessment
11
Master’s Final Project in Sustainable Extraction of Marine Resources (oil, gas, minerals)
- Fundamentals and Advances in Sustainable Extraction Technologies: Principles of Minimization of 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 Minerals
- Simulation and advanced optimisation of drilling and production processes: use of artificial intelligence, machine learning and predictive modelling for waste reduction and emissions
- Innovations in hydrocarbon and mineral capture and recycling systems: emerging technologies for leakage capture, sludge management and safe reinjection
- Environmental impact and mitigation protocols: real-time monitoring, analysis of oceanographic parametres and adaptation of operating plans based on ecosystem changes
- Design and application of underwater drones and advanced robotics for inspection, maintenance and remediation in sensitive underwater environments
- Specialised tools and software in geospatial modelling and 4D mapping for sustainable planning and execution of extractive projects
- International regulation, regulations and technical standards: compliance, certification and audits in the marine extractive industry from a sustainable perspective
- Cases of technological implementation and success analysis: comparative studies between different basins and types of marine resources
- Methodologies for the development of integrated environmental, social and economic evaluation and management models in marine extractive concessions
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
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
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
- 01Develop innovative strategies for minimizing the environmental impact of resource extraction.
- 02Optimize the comprehensive management of waste and effluents generated in extraction operations.
- 03Lead extraction projects while complying with the most demanding environmental and sustainability regulations
- 04Evaluate and certify the environmental viability of marine extraction projects
- 05Implement continuous monitoring technologies for the early detection of environmental risks
- 06Design and implement effective contingency plans for potential incidents and spills.
Careers
Career Opportunities
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02Marine Extraction Project Engineer: Design, planning, and management of oil, gas, and mineral extraction projects in marine environments.
03Marine Sustainability Specialist: Development and implementation of strategies to minimize the environmental impact of marine resource extraction.
04Environmental Consultant: Environmental impact assessment and advice on mitigating environmental risks associated with marine resource extraction.
05Marine Resource Manager: Management and optimization of marine resource exploitation, ensuring sustainability and efficiency.
06Sustainable Extraction Technology Researcher: Development of new technologies and processes for marine resource extraction with reduced environmental impact.
07Offshore Operations Technician: Supervision and control of extraction operations on offshore platforms.
08Specialist In offshore security: Security management and risk prevention on marine extraction platforms.
09Geoscientific data analyst: Interpretation and analysis of geological and geophysical data for the optimization of marine resource extraction.
Questions
Entry Requirements
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 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 Mining Engineering, Geology, Marine Sciences, Chemical Engineering, Environmental Engineering or related field; or accredited professional experience in the marine resource extraction sector.Language proficiency:English level B2 (CEFR) or equivalent, demonstrable through certification (TOEFL, IELTS, Cambridge) or proficiency test.Documentation:Updated CV, copy of university degree, academic transcript, ID/Passport, cover letter, letters of recommendation (optional).Specific requirements:Basic knowledge
Questions?
Frequently Asked Questions
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