Diploma in Robustness and Autonomy of On-Board CNG
About us Diploma in Robustness and Autonomy of On-Board CNG
The Diploma in Robustness and Autonomy of Onboard CNG explores the design and implementation of guidance and navigation control systems for Compressed Natural Gas (CNG) powered vehicles, focusing on robustness against disturbances and autonomy in operation. It covers advanced techniques in predictive control, state estimation, and trajectory planning, applied to scenarios such as urban and industrial transport. Emphasis is placed on the integration of sensors, optimization algorithms, and energy management to maximize the efficiency and safety of CNG systems. The program includes the study of CNG engines, inertial sensors, GPS, and simulation platforms for validating algorithms in challenging environments, considering integration with CNG infrastructure and complying with specific safety and emissions regulations. This training prepares professionals as control engineers, CNG system developers, vehicle autonomy specialists, and CNG performance analysts, enabling them to meet the challenges of the sustainable mobility sector.
Diploma in Robustness and Autonomy of On-Board CNG
- Format: Hybrid
- Duration: 6–8 months
- Hours: 800 H
- Language: English / Spanish
- Registration date: 23-10-2026
- Strat date: 03-12-2026
- Available places: 2
1,795 $
Competencies and results
What you will learn
1. Comprehensive Mastery of CNG Robustness and Autonomy in Naval Environments
- Evaluate the structural integrity of CNG (Compressed Natural Gas) components under adverse naval conditions.
- Analyze the response of CNG systems to movements and vibrations inherent to the marine environment.
- Apply finite element analysis (FEA) methods to simulate the structural behavior of CNG components.
- Understand and mitigate the effects of corrosion and other degradation mechanisms in CNG systems.
- Establish inspection and predictive maintenance protocols to ensure the reliability and safety of CNG systems.
- Implement strategies to optimize the service life of CNG components in naval applications.
- Analyze flap-lag-torsion, whirl flutter, and fatigue couplings.
- Dimension laminates in composites, joints and bonded joints with FE.
- Implement damage tolerance and NDT (UT/RT/thermography).
2. Optimization and Resilience of Onboard CNG: A Comprehensive Approach
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2. Onboard CNG Optimization and Resilience: A Comprehensive Approach
- Understand and evaluate critical failure modes in CNG (Compressed Natural Gas) systems: analyze flap-lag-torsion couplings, identifying their implications for vessel stability and performance.
- Analyze the whirl flutter phenomenon, its causes and effects on propulsion and steering systems, and learn mitigation strategies.
- Evaluate fatigue in critical components, applying predictive and life-cycle analysis methods.
- Design and dimension laminated structures in composites, using finite element (FE) software to simulate their behavior under extreme loads and operating conditions.
- Design and evaluate structural and bonded joints, optimizing their strength and durability through FE simulation.
- Apply the concept of damage tolerance, implementing strategies for the detection and evaluation of damage in CNG systems.
- Master Non-Destructive Testing (NDT) techniques such as Ultrasonic Testing (UT), Radiography (RT), and Thermography for the inspection and evaluation of the structural integrity of CNG components.
3. Comprehensive user-oriented design and validation (from modeling to manufacturing)
You will learn to integrate the entire product development process, from initial model conception to final validation, applying user-centered methodologies. You will develop skills in parametric design, ergonomics, simulation, sustainable materials, 3D visualization, and manufacturing management, ensuring efficient, safe solutions that meet current industry standards.
4. In-depth Analysis and Advanced Autonomy of CNG on Offshore Platforms
- Advanced Structural Dynamics Assessment: You will gain a thorough understanding of flap-lag-torsion couplings, crucial for the stability of structures on offshore platforms. You will analyze critical phenomena such as whirl flutter and their impact on system integrity. You will learn to identify and mitigate the effects of fatigue on key components.
- Design and Analysis of Composite Materials: You will master the dimensioning of laminates in composites, using advanced finite element (FE) techniques. You will study the design of joints and bonded joints, optimizing their performance and durability in marine environments.
- Structural Integrity Management: You will acquire knowledge on the implementation of damage tolerance methodologies, enabling the assessment of the remaining service life of structures. You will become familiar with non-destructive testing (NDT) techniques, including ultrasonic testing (UT), radiography (RT), and thermography, for the early detection of damage and optimization of maintenance.
5. Excellence in Robustness and Autonomy of Onboard CNG: Naval Design and Operation
5. Excellence in Robustness and Autonomy of Onboard CNG: Naval Design and Operation
- Gain in-depth knowledge of the management of onboard Compressed Natural Gas (CNG) systems, optimizing safety and operational efficiency.
- Master the design and selection of critical CNG components, including tanks, piping, and control systems.
- Understand and apply the principles of naval autonomy, ensuring the extended operability of CNG under adverse conditions.
- Analyze international regulations and standards related to CNG in the maritime sector, guaranteeing legal compliance.
- Evaluate and mitigate the risks associated with the storage and handling of CNG onboard, prioritizing the safety of personnel and the vessel.
- Optimize the inspection and preventive maintenance processes of CNG systems, extending their useful life and minimizing failures.
- Apply advanced simulation techniques and modeling to predict CNG behavior in different operating scenarios.
Design and implement innovative solutions to improve energy efficiency and reduce emissions from onboard CNG systems.
Develop leadership and team management skills for the effective oversight of CNG operations in naval environments.
Become familiar with the latest trends and technologies in the field of naval CNG, including the use of alternative fuels and cleaner propulsion systems.
6. Strategic Implementation of CNG Robustness and Autonomy in the Naval Sector
6. Strategic Implementation of CNG Robustness and Autonomy in the Naval Sector
- Mastery of the design and operating principles of Compressed Natural Gas (CNG) systems applied to vessels.
- Evaluation of the technical and economic feasibility of CNG as an alternative fuel, considering naval sector regulations.
- In-depth analysis of the key components of CNG systems: tanks, piping, valves, and control systems.
- Application of methodologies for the selection and specification of materials compatible with CNG and the marine environment.
- Development of skills in the simulation and modeling of CNG systems to optimize performance and safety.
- Management of risks associated with the storage and handling of CNG, including preventive measures and emergency response.
- Design and implementation of safety, ventilation, and leak detection systems to ensure the integrity of the vessels.
Efficient integration of CNG systems into existing naval infrastructure, considering space and weight limitations.
Understanding international maritime regulations and specific regulations for the use of CNG in the naval sector.
Exploring the latest technologies in CNG systems, including high-pressure storage systems and cooling technologies.
Studying practical case studies and examples of successful CNG implementation in different types of vessels.
Evaluating the environmental impact of CNG compared to other marine fuels, considering emissions and sustainability.
Who this program is for:
Diploma in Robustness and Autonomy of On-Board CNG
- Graduates in Naval Engineering, Mechanical Engineering, Naval Systems Engineering, or related fields.
- Professionals from shipping companies, shipyards, maritime service companies, and naval consulting firms.
- Merchant Marine Officers, Naval Engineers, and technical personnel with experience in operations, maintenance, and fleet management.
- Professionals involved in the design, construction, and operation of CNG-powered vessels, including safety officers and compliance personnel normative.
Recommended requirements: Basic knowledge of mechanics, thermodynamics, and propulsion systems; ES/EN B2+/C1. We offer bridging tracks if needed.
- Standards-driven curriculum: you will work with CS-27/CS-29, DO-160, DO-178C/DO-254, ARP4754A/ARP4761, ADS-33E-PRF from the first module.
- Accreditable laboratories (EN ISO/IEC 17025) with rotor bench, EMC/Lightning pre-compliance, HIL/SIL, vibrations/acoustics.
- Evidence-oriented TFM: safety case, test plan, compliance dossierand operational limits.
- Mentored by industry: teachers with experience in rotorcraft, tiltrotor, eVTOL/UAM and flight test.
- Flexible modality (hybrid/online), international cohorts and support from SEIUM Career Services.
- Ethics and security: safety-by-design approach, cyber-OT, DIH and compliance as pillars.
1.1 Introduction to CNG Systems in the Naval Context
1.2 Fundamental Principles of CNG Robustness and Autonomy
1.3 International Maritime Legislation and its Impact on CNG Systems
1.4 National Regulations and their Application in the Design and Operation of Naval CNG
1.5 Relevant Quality Standards and Certifications for CNG Systems
1.6 Operational Safety and Risk Analysis in Naval Environments
1.7 Essential Components of CNG Systems: Sensors, Actuators, and Controllers
1.8 Architecture and Design of CNG Systems: Hardware and Software Integration
1.9 Cybersecurity in CNG Systems: Protection against Digital Threats
1.10 Case Studies: CNG Implementation in Different Types of Vessels
2.2 Fundamentals of CNG Optimization in Naval Environments
2.2 Design for Resilience: Fail-Safe CNG Systems
2.3 Failure Analysis and Risk Mitigation in CNG
2.4 CNG System Integration: Platforms and Subsystems
2.5 Energy Management and Efficiency of Onboard CNG
2.6 Implementation of Safety and Cybersecurity Protocols in CNG
2.7 Predictive and Preventive Maintenance for CNG Systems
2.8 Adaptation and Scalability of CNG Systems in Naval Operations
2.9 Life Cycle Assessment and Cost of Naval CNG
2.20 Case Studies: CNG Optimization and Resilience in Real-World Scenarios
3.3 Fundamentals of CNG Systems in Naval Environments: Architecture and Key Components
3.2 Risk Assessment and Failure Analysis in Marine CNG Systems
3.3 Design and Selection of Robust Components for Onboard CNG
3.4 Energy Optimization and Autonomy Strategies on Naval Platforms
3.5 Implementation of Backup and Redundancy Systems in CNG
3.6 Predictive Maintenance and Reliability Management in CNG Systems
3.7 Integration of Advanced Sensors and Actuators for Increased Autonomy
3.8 Communication and Data Protocols for CNG in Marine Environments
3.9 Regulations and Safety Standards for Naval CNG Systems
3.30 Case Studies: Real-World Applications and Best Practices in CNG Autonomy
3.4
4.4 Fundamentals of CNG on Offshore Platforms: Advanced Sensors and Actuators
4.2 CNG Architectures: Design and Selection for Naval Environments
4.3 Modeling and Simulation of CNG Systems: Techniques and Tools
4.4 Stability and Control Analysis of Offshore Platforms
4.5 Design of Advanced Control Algorithms for CNG
4.6 Integration of Navigation and CNG Systems: Strategies and Challenges
4.7 Diagnosis and Fault Detection in CNG Systems: Strategies and Techniques
4.8 Performance Analysis and Optimization of CNG Systems
4.9 Autonomy and Robotics in Naval Environments: CNG Applications
4.40 Case Studies: Real-World Applications and Challenges of Advanced CNG
4.5
5.5 Fundamentals of Compressed Natural Gas (CNG) in the Naval Sector
5.5 Relevant Maritime Standards and Regulations for CNG
5.3 Essential Components of CNG Systems on Board Vessels
5.4 Safety Considerations in CNG Storage and Handling
5.5 Risk Analysis and Preventive Measures in Naval CNG Installations
5.6 International and National Legislation Applicable to CNG in the Maritime Sector
5.7 Certifications and Regulatory Compliance for Naval CNG Systems
5.8 Comparison of Alternative Fuels and CNG as a Viable Option
5.9 Introduction to CNG Trends and Challenges in the Future of Naval Use
5.50 Case Studies: Successful Implementation and Failures in Naval CNG Systems
5.5 Designing CNG Systems for Challenging Naval Environments
5.5 Selecting Materials Resistant to Corrosion and Extreme Marine Conditions 5.3 Strategies for protection against vessel vibrations and movements.
5.4 Methods for detecting and preventing leaks in CNG systems.
5.5 Integration of CNG systems with other onboard systems (propulsion, power).
5.6 Analysis of the resilience of CNG systems to failures and emergencies.
5.7 Design of redundancies and backup systems to ensure continuous operation.
5.8 Optimization of space and weight in the design of marine CNG systems.
5.9 Modeling and simulation to evaluate CNG performance and safety.
5.50 Case studies: Best practices in the design of resilient CNG systems.
3.5 Strengthening techniques to increase the autonomy of CNG systems.
3.5 Design of high-capacity and efficient CNG storage systems.
3.3 Strategies for intelligent management of onboard CNG consumption. 3.4 Implementation of remote monitoring and control systems.
3.5 Optimization of the energy efficiency of CNG equipment.
3.6 Integration of renewable energy sources into marine CNG systems.
3.7 Backup and redundancy systems to guarantee autonomy in critical situations.
3.8 Failure response protocols and emergency procedures for CNG systems.
3.9 Analysis of component lifespan and predictive maintenance strategies.
3.50 Case studies: Implementation of autonomous CNG systems on vessels.
4.5 Detailed analysis of failures and failure modes in CNG systems.
4.5 Advanced diagnostic and troubleshooting techniques.
4.3 Modeling and simulation of complex CNG systems.
4.4 Strategies for data analysis and real-time monitoring.
4.5 Design of advanced control and automation systems. 4.6 Implementation of artificial intelligence and machine learning for optimization.
4.7 Design of CNG systems for long-duration, high-demand operations.
4.8 Strategies for continuous improvement and performance optimization.
4.9 Advanced risk analysis and safety management.
4.50 Case studies: Applications of advanced analytics and autonomy in marine CNG.
5.5 Design of CNG systems to meet specific naval requirements.
5.5 Selection and specification of high-quality, high-performance components.
5.3 Integration of CNG systems with propulsion and other vessel systems.
5.4 Standard operating procedures (SOPs) for the safe and efficient handling of CNG.
5.5 Design optimization for easier maintenance and repair.
5.6 Implementation of advanced safety and security systems.
5.7 Evaluation of CNG system performance and energy efficiency. 5.8 Design of emergency protocols and contingency plans.
5.9 Ergonomic and accessibility considerations in design and operation.
5.50 Case studies: Design and operation of high-performance CNG systems on vessels.
6.5 Feasibility assessment of CNG implementation in the maritime sector.
6.5 Cost-benefit analysis of CNG adoption.
6.3 Development of strategies for integrating CNG into existing and new fleets.
6.4 Identification and assessment of risks associated with CNG implementation.
6.5 Development of project management plans for CNG implementation.
6.6 Training and development of personnel to operate and maintain CNG systems.
6.7 Development of strategic alliances with suppliers and partners in the sector.
6.8 Implementation of performance monitoring and evaluation systems.
6.9 Compliance with maritime sector regulations and standards. 6.50 Case Studies: Successful CNG Implementation in the Naval Sector and Lessons Learned
7.5 Design for Reliability: Techniques and Methodologies Applied to Naval CNG
7.5 Root Cause Analysis and Failure Prevention
7.3 Selection of Highly Reliable and Durable Components
7.4 Design of Redundant and Backup Systems
7.5 Implementation of Real-Time Monitoring and Control Systems
7.6 Preventive and Predictive Maintenance to Maximize Reliability
7.7 Stress Testing and Failure Simulation to Evaluate Reliability
7.8 Managing the Obsolescence of CNG System Components
7.9 Life Cycle Analysis and Continuous Reliability Improvement Strategies
7.50 Case Studies: Examples of Highly Reliable Naval CNG Systems
8.5 Design of Naval CNG Systems: Principles and Best Practices 8.5 Selection of materials and components for marine environments.
8.3 Implementation of safety and security systems.
8.4 Design of CNG storage and onboard distribution systems.
8.5 Planning and implementation of preventive and predictive maintenance.
8.6 Failure analysis and troubleshooting.
8.7 Management of CNG system component obsolescence.
8.8 Training and development of personnel in design, implementation, and maintenance.
8.9 Compliance with applicable regulations and standards.
8.50 Case studies: Examples of the design, implementation, and maintenance of marine CNG systems.
6.6 Selection and Initial Design of CNG Systems for Naval Environments
6.2 Integration of CNG Systems into Naval Architecture: Key Considerations
6.3 Risk Analysis and Failure Mitigation in Maritime CNG Systems
6.4 Optimization of Onboard CNG Performance and Energy Efficiency
6.5 Implementation of Resilience and Autonomy Strategies in CNG Systems
6.6 Predictive and Corrective Maintenance of CNG Systems in the Naval Sector
6.7 Testing and Validation Protocols for Maritime CNG Systems
6.8 Regulatory Compliance and Safety Standards in Naval CNG Systems
6.9 Data Management and Cybersecurity in CNG Systems
6.60 Case Studies: Successful Implementations and Lessons Learned in the Naval Sector
7.7 CNG Fundamentals: Principles and Key Components
7.2 International Naval Regulations and Their Impact on CNG
7.3 Design and Construction Standards for CNG Systems
7.4 Specific Legislation for CNG in Naval Environments
7.7 Types of CNG Systems: Applications and Characteristics
7.6 Technical Documentation: Manuals, Certifications, and Procedures
7.7 Operational Safety: Risk Prevention and Mitigation
7.8 Audits and Regulatory Compliance in Naval CNG
2.7 Architecture and Design of Naval CNG Systems
2.2 Materials and Components for Marine Environments
2.3 Simulation and Modeling of CNG Systems
2.4 Strategies for Resilience: Redundancy and Fault Tolerance
2.7 Design for Sustainability and Energy Efficiency
2.6 Corrosion and Wear Protection in CNG
2.7 Testing and Validation: System Integrity CNG System
2.8 Lifecycle Planning and Obsolescence Management
3.7 CNG System Hardening Techniques
3.2 CNG System Design for Offshore Operations
3.3 Autonomy Strategies: Resource and Energy Management
3.4 Integration of Remote Control and Monitoring Systems
3.7 Performance Optimization in Adverse Conditions
3.6 Failure Analysis and Continuous Improvement
3.7 Implementation of Emergency and Rescue Protocols
3.8 Predictive and Proactive Maintenance in CNG Systems
4.7 Advanced Failure Analysis in Naval CNG Systems
4.2 Diagnostic and Troubleshooting Techniques
4.3 CNG Performance and Efficiency Optimization
4.4 Artificial Intelligence and Machine Learning in CNG
4.7 Advanced Control and Automation Systems
4.6 Risk Analysis and Vulnerability Assessment
4.7 Autonomy in CNG Systems: Design and Operation
4.8 Integration with Platform Management Systems
7.7 Design for Reliability and Durability in CNG Systems
7.2 Selection of High-Quality Components for Marine Operation
7.3 Optimization of CNG System Layout and Location
7.4 Circuit and Wiring Design for Marine Environments
7.7 Start-up and Shutdown Protocols: Safe Operations
7.6 Energy Management and Operational Efficiency
7.7 Preventive and Corrective Maintenance Procedures
7.8 Design for Accessibility and Ease of Maintenance
7.9 Spare Parts Management and Logistics
7.70 Operator-Centered Design and Training
6.7 Strategic Planning for CNG Implementation
6.2 Supplier and Contractor Selection
6.3 Project Management in the Naval Sector
6.4 Integration of CNG Systems with Existing Systems
6.7 Risk Management in CNG Implementation
6.6 Financial Aspects and Return on Investment
6.7 Staff Training and Development
6.8 Legality and Compliance: Contracts and Agreements
7.7 Design of CNG Systems to Maximize Reliability
7.2 Analysis of CNG Reliability and Availability
7.3 Component Lifecycle Management
7.4 Strategies for Failure Reduction
7.7 Design of Energy Autonomy Systems
7.6 Remote Monitoring and Control Systems
7.7 Condition-Based Maintenance Planning
7.8 Emergency Response and Safety Protocols
8.7 Advanced Design of CNG Systems Naval Engineering
8.2 Selection of Next-Generation Materials and Components
8.3 Implementation of Intelligent Control Systems
8.4 Predictive Maintenance Strategies
8.7 Design for Accessibility and Ease of Maintenance
8.6 Obsolescence Management and System Upgrades
8.7 Life Cycle Cost Analysis
8.8 Operator-Centered Design and Training
8.9
8.8 CNG System Design for Naval Environments: Fundamentals and Applications
8.8 Selection of CNG Components: Robustness and Performance Criteria
8.3 CNG System Integration: Architecture and Maritime Protocols
8.4 Design of Electrical Power and Distribution Systems for CNG
8.5 Preventive and Corrective Maintenance of Onboard CNG Systems
8.6 Fault Detection and Diagnosis in CNG Systems
8.7 Implementation of Energy Management Systems for CNG
8.8 CNG Range Management and Performance Optimization
8.8 Adaptation and Upgrading of CNG Systems: Continuous Innovation
8.80 Case Studies: Real-World Applications and Best Practices in the Naval Sector
9.9 CNG Fundamentals: Components and Operation in Naval Environments
9.9 International Regulations and Standards Applicable to CNG Systems
9.3 Safety and Security: Design and Compliance in the Maritime Sector
9.4 CNG Architecture and Design: Considerations for Naval Environments
9.5 Case Studies: CNG in Different Types of Vessels
9.9 CNG Optimization: Performance and Energy Efficiency
9.9 Design for Resilience: Redundancy and Fault Tolerance
9.3 CNG Systems: Integration and Compatibility with Other Onboard Systems
9.4 Risk Analysis and Failure Mitigation: Strategies for Resilience
9.5 CNG Design: Space and Weight Considerations on Vessels
3.9 Hardening CNG Systems: Design for Adverse Conditions
3.9 Autonomy in CNG Systems: Energy Sources and Resource Management
3.3 CNG System Design: Implementation on Offshore Platforms
3.4 CNG Systems: Performance Analysis and Optimization for Autonomy
3.5 Case Studies: CNG in Specific Maritime Applications
4.9 In-Depth Analysis: Advanced Diagnostics of CNG Systems
4.9 Advanced Autonomy: Resource Optimization and Management
4.3 Simulation and Modeling of CNG Systems
4.4 CNG on Offshore Platforms: Challenges and Solutions
4.5 Case Studies: Failure Analysis and Improvements in CNG Systems
5.9 Design Excellence: Component Selection and Optimal Configuration
5.9 Operational Excellence: Safety Protocols and Procedures
5.3 Preventive and Corrective Maintenance of CNG Systems
5.4 CNG System Integration: Performance and Reliability Optimization
5.5 Case Studies: Best Practices in Naval Design and Operation
6.9 Implementation Strategies: Project Planning and Management
6.9 Cost-Benefit Considerations: Return on Investment Analysis
6.3 Integration with Existing Systems: Adaptation and Upgrading
6.4 Staff Training and Development: Skills Development
6.5 Case Studies: Successful CNG Implementation in the naval sector
7.9 Reliability of CNG systems: Evaluation methods and tools
7.9 Autonomy of CNG systems: Design of alternative energy sources
7.3 Design of CNG systems: Integration of sensors and control systems
7.4 Strategies for failure reduction and performance improvement
7.5 Case studies: Improving reliability and autonomy in CNG systems
8.9 Design of CNG systems: Component selection and system design
8.9 Implementation of CNG systems: Project management and regulatory compliance
8.3 Maintenance of CNG systems: Planning and execution of tasks
8.4 Fault diagnosis: Advanced techniques and analysis tools
8.5 Case studies: Design, implementation, and maintenance of naval CNG
9.9 Preventive maintenance: Scheduling and execution of tasks
9.9 Fault diagnosis: Analysis and problem-solving techniques
9.3 Diagnostic tools: Use and application of specialized equipment
9.4 Spare parts management: Storage and logistics
9.5 Safety Protocols: Compliance and Best Practices
9.6 Maintenance Planning: Scheduling and Resource Allocation
9.7 Maintenance Optimization: Continuous Improvement and Cost Reduction
9.8 CNG Systems: Trend Analysis and Performance Improvement
9.9 Case Studies: Troubleshooting and Repairing CNG Systems
9.90 Training and Certification: Maintenance Skills and Knowledge
9.1
1. CNG Design and Configuration Analysis for Naval Robustness
2. Failure and Failure Mode Evaluation in CNG Systems
3. Design of CNG Backup and Redundancy Systems
4. Autonomy and Energy Management on Offshore Platforms
5. Integration of Sensors and Actuators for CNG Autonomy
6. Optimization of CNG Architecture for Resilience
7. CNG Communication Protocols and Cybersecurity
8. Simulation and Modeling for CNG Performance Evaluation
9. Implementation of CNG in Naval Operational Scenarios
10. Design of a Naval CNG System with Advanced Autonomy
- Hands-on methodology: test-before-you-trust, design reviews, failure analysis, compliance evidence.
- Software (depending on licenses/partners): MATLAB/Simulink, Python (NumPy/SciPy), OpenVSP, SU2/OpenFOAM, Nastran/Abaqus, AMESim/Modelica, acoustics tools, planning toolchains DO-178C.
- SEIUM Laboratories: scale rotor bench, vibrations/acoustics, EMC/Lightning pre-compliance, HIL/SIL for AFCS, data acquisition with strain gauging.
- Standards and compliance: EN 9100, 17025, ISO 27001, GDPR.
Capstone-type projects
- GNC Shielding: Robust design against threats; autonomous backup systems; vulnerability analysis.
- Resilient Architecture: Redundancy; fail-safe; fault management; switching protocols.
- Extended Autonomy: Energy optimization; alternative power sources; scenario simulation.
- Naval Integration: EMI/EMC compatibility; marine environment testing; GNC cybersecurity.
- Naval CNG Design: Modeling, simulation, and SIL/HIL validation of CNG systems for autonomy and robustness.
- Algorithm Optimization: Development of predictive and adaptive algorithms to improve CNG resilience.
- Failure Analysis: Implementation of fault tolerance and redundancy strategies in marine CNG systems.
- CNG Shielding: Design resistant to interference and cyberattacks.
- Autonomous Power Supply: Efficient management and backup power sources.
- Simulation and Validation: SIL/HIL testing, extreme scenarios.
- Predictive Maintenance: Sensors and analysis to minimize failures.
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- Naval CNG: Analysis and design of robust CNG systems.
- Autonomy: Implementation of algorithms for navigation and control.
- Resilience: Backup and redundancy strategies for failures.
- Simulations: Validation of CNG systems in simulated environments.
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Admissions, fees and scholarships
- Profile: Background in Computer Engineering, Mathematics, Statistics, or related fields; practical experience in NLP and valued information retrieval systems.
- Documentation: Updated CV, academic transcript, SOP/statement of purpose, project examples or code (optional).
- Process: Application → Technical evaluation of profile and experience → Technical interview → Review of case studies → Final decision → Enrollment.
- Fees:
- Single payment: 10% discount.
- Payment in 3 installments: No fees; 30% upon registration + 2 equal monthly payments of the remaining 35%.
Monthly payment: available with a 7% commission on the total; annual review.
Scholarships: based on academic merit, financial need, and promoting inclusion; agreements with companies in the sector for partial or full scholarships.
See “Calendar & Calls for Applications,” “Scholarships & Grants,” and “Fees & Financing” in the SEIUM mega-menu.
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