Hybrid rocket-electric propulsion course
About ourHybrid rocket-electric propulsion course
The Hybrid Rocket-Electric Propulsion Course explores the integration of hybrid propulsion systems, combining the efficiency of electric motors with the power of rockets. It focuses on the design, simulation, and performance analysis of vehicles and launch systems that utilize this technology, covering topics such as thermodynamics, flight dynamics, and systems control. The course is geared towards the application of these technologies in space exploration and hypersonic vehicles.
The program offers hands-on experience in the use of simulation and analysis software for performance optimization and flight stability. The integration of different propulsion systems is addressed, including rocket engines, electric motors, and control systems. This training is geared towards preparing professionals for development and research in the aerospace industry and the field of space exploration, with a focus on sustainability and efficiency. Target keywords (naturally occurring in the text): hybrid propulsion, rocket-electric, flight dynamics, control systems, space exploration, thermodynamics, rocket engines, electric motors.
Hybrid rocket-electric propulsion course
- Modalidad: Online
- Duración: 4 meses
- Horas: 300 H
- Idioma: ES / EN
- Créditos: 60 ECTS
- Fecha de matrícula: 30-05-2026
- Fecha de inicio: 02-07-2026
- Plazas disponibles: 16
699 $
Competencies and outcomes
What you will learn
1. Mastery of Hybrid Rocket-Electric Propulsion Systems
- Understand the physics behind hybrid rocket-electric propulsion, including the combustion of solid and liquid propellants and the generation of electrical power.
- Study the key components of a hybrid system, such as the rocket engine, electric turbine, generator, and control system.
- Learn about the different configurations of hybrid systems, including series, parallel, and combined systems.
- Analyze the performance and efficiency of hybrid systems, considering factors such as thrust, fuel consumption, and emissions.
- Master simulation and modeling techniques for hybrid systems using specialized software.
- Explore the applications of hybrid rocket-electric propulsion in space exploration, air transport, and maritime transport.
- Become familiar with the regulations and standards related to the safety and design of hybrid systems.
- Study the technical challenges associated with the integration of hybrid systems.
Hybrid propulsion, including thermal management, stability control, and electromagnetic compatibility.
Develop practical skills in the construction, testing, and maintenance of hybrid systems.
Investigate future trends in hybrid rocket-electric propulsion technology, including the development of new propellants, materials, and designs.
2. Optimization of Hybrid Rocket-Electric Propulsion Performance
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Understand the fundamentals of hybrid rocket-electric propulsion systems, including their advantages, disadvantages, and applications.
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Analyze the operating principles of key components in a hybrid system, such as rocket engines, electric motors, control systems, and energy storage.
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Evaluate the performance of hybrid systems, considering factors such as energy efficiency, thrust-to-weight ratio, and maneuverability.
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Design and optimize the integration of components in a hybrid system, including engine selection, propulsion configuration, and energy management.
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Explore emerging technologies in hybrid propulsion, such as the use of advanced fuels, intelligent control systems, and lightweight materials.
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Apply simulation and analysis tools to predict the performance of hybrid systems and optimize their design.
Study the safety and reliability considerations of hybrid propulsion systems, including risk management and validation testing.
Analyze the economic and environmental aspects of hybrid propulsion, considering development, production, and operating costs, as well as the impact on emissions.
Become familiar with the regulations and standards applicable to hybrid propulsion systems in the naval sector.
Develop skills for research and development of hybrid propulsion technologies, including the ability to identify innovation opportunities and collaborate in multidisciplinary teams.
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. Evaluation and Design of Hybrid Rocket-Electric Propulsion Systems
4. Evaluation and Design of Hybrid Rocket-Electric Propulsion Systems
- Hybrid Propulsion Principles: Understanding the thermodynamic and heat transfer fundamentals of hybrid rocket-electric propulsion systems.
- Key Component Design: Learning to design and size critical components such as hybrid combustion chambers, nozzles, electric generators, and control systems.
- Modeling and Simulation: Using simulation tools to predict the performance, efficiency, and stability of hybrid propulsion systems under different operating conditions.
- Systems Integration: Acquiring skills to integrate the electrical, chemical, and mechanical components of a hybrid propulsion system, optimizing the interaction between them.
- Performance Evaluation and Optimization: Learning to evaluate the performance of hybrid propulsion systems through theoretical and experimental analysis, and applying optimization techniques to improve efficiency, reliability, and durability.
- Fuel and Propellant Selection: Understanding the properties of different solid and liquid fuels, as well as electric propellants, and how to select the most suitable combination for a specific application.
- Systems Control and Management: Understanding the control systems required to manage the start-up, operation, and shutdown of hybrid propulsion systems, including flow control, power regulation, and safety management.
5. Advanced Simulation and Optimization of Hybrid Rocket-Electric Propulsion
5. Advanced Simulation and Optimization of Hybrid Rocket-Electric Propulsion
- Master the simulation and modeling of hybrid rocket-electric propulsion systems, including the complex interaction between rocket and electric motors.
- Understand the operating principles and design characteristics of key components, such as hybrid combustion chambers, nozzles, electric turbines, and control systems.
- Learn advanced numerical simulation techniques to analyze the performance, efficiency, and stability of hybrid propulsion systems, using specialized software.
- Study optimization methods to improve the performance and reduce the fuel consumption of hybrid propulsion systems, considering different variables and design constraints.
- Analyze the challenges and solutions in integrating hybrid propulsion systems into different platforms, such as space rockets, unmanned aerial vehicles, and reusable launch systems.
- Explore current and future trends in the development of hybrid rocket-electric propulsion, including the use of alternative fuels, cutting-edge technologies, and innovative concepts.
Evaluate the safety and reliability of hybrid propulsion systems, including failure analysis, risk management, and validation testing.
Apply the knowledge acquired in the design and optimization of hybrid rocket-electric propulsion systems to relevant practical projects and case studies.
6. Strategic Implementation of Hybrid Rocket-Electric Propulsion
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.
Who our [course/program] is aimed at:
Hybrid rocket-electric propulsion course
- Engineers with degrees in Aerospace Engineering, Mechanical Engineering, Industrial Engineering, Automation Engineering, or related fields.
- Professionals working in rotary aircraft/eVTOL manufacturing (OEM), maintenance, repair, and overhaul (MRO), aeronautical consulting, or technology research centers.
- Specialists in flight testing, aeronautical certification, avionics, control systems, and flight dynamics who wish to deepen their knowledge of hybrid propulsion.
- Regulators Governmental authorities, aviation authorities, and professionals involved in the development and operation of Urban Air Mobility (UAM) / eVTOL aircraft seeking to acquire knowledge in regulatory compliance.
Recommended Requirements: Basic knowledge of aerodynamics, control systems, and structures is recommended. Proficiency in Spanish or English at a B2+/C1 level is required. We offer bridging tracks for those who need them.
- 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.
Module 1 — Mastering Hybrid Rocket-Electric Systems
1.1 Fundamentals of Hybrid Rocket-Electric Propulsion
1.2 Key Components and Operation of Hybrid Systems
1.3 Common Hybrid Propulsion Architectures
1.4 Fuel and Propellant Selection
1.5 Principles of Thermodynamics in Hybrid Systems
1.6 Safety and Regulatory Considerations
1.7 Preliminary Performance Analysis
1.8 Integration of Electric and Rocket Systems
1.9 Case Studies: Current Applications
1.10 Introduction to Design and Optimization
2.2 Fundamentals of Hybrid Rocket-Electric Propulsion
2.2 Key Components: Rockets, Electric Motors, and Control Systems
2.3 Operating Principles and Common Architectures
2.4 Advantages and Challenges of Hybrid Propulsion
2.5 Current and Future Applications in the Naval Sector
2.6 Comparison with Conventional Propulsion Systems
2.7 Basic Thermodynamics Applied to Propulsion
2.8 Introduction to Naval Electrification
2.9 Introduction to Fluid Dynamics for Rockets
2.20 Case Studies: Examples of Hybrid Implementation
2.2 Factors Influencing Performance: Efficiency, Power, and Consumption
2.2 Fuel and Energy Optimization Strategies
2.3 Component Selection and Sizing to Maximize Performance
2.4 Simulation and Modeling of Hybrid Systems for Optimization
2.5 Advanced Control Methods for Propulsion Management
2.6 Data Analysis and Key Performance Metrics
2.7 Integration of Energy Management Systems (EMS)
2.8 Weight and Balance Considerations in Hybrid Design
2.9 Aerodynamic Design Optimization for Efficiency
2.20 Case Studies: Optimization Examples in Naval Environments
3.2 System Requirements and Specifications Analysis
3.2 Component Selection: Motors, Rockets, Batteries, and Converters
3.3 Hybrid Propulsion System Architecture Design
3.4 Control and Energy Management System Design
3.5 Subsystem Integration: Mechanical, Electrical, and Control
3.6 Cooling and Thermal Management System Design
3.7 Considerations of Safety and Reliability in Design
3.8 Design of Monitoring and Diagnostic Systems
3.9 Computer-Aided Design (CAD) and Simulation for Design
3.20 Case Studies: Design of Hybrid Systems for Naval Platforms
4.2 Performance and Efficiency Evaluation Methods
4.2 Cost-Benefit Analysis (CBA) and Return on Investment (ROI)
4.3 Risk Assessment and Mitigation in Hybrid Systems
4.4 Life Cycle Assessment (LCA) and Sustainability
4.5 Testing and Validation of Hybrid Propulsion Systems
4.6 Reliability, Availability, and Maintainability (RAM) Assessment
4.7 Failure Mode and Effects Analysis (FMEA)
4.8 Electromagnetic Compatibility (EMC) Assessment
4.9 Operational Safety Assessment
4.20 Case Studies: Evaluation of Implemented Hybrid Systems
5.2 Advanced Simulation Software and Tools
5.2 Component Modeling: Rockets, Motors, and Batteries
5.3 Energy Flow and Thermal Management Simulation
5.4 Multi-Objective Optimization in Propulsion Systems
5.5 Design Sensitivity and Robustness Analysis
5.6 System Dynamics and Control Simulation
5.7 Integration of Simulation and Computer-Aided Design (CAD)
5.8 Operational Scenario Simulation
5.9 Validation of Simulation Models and Results
5.20 Case Studies: Application of Advanced Simulation
6.2 Strategic Planning for Hybrid Implementation
6.2 Selection of Appropriate Platforms and Applications
6.3 Project Management and Implementation Schedules
6.4 Design and Implementation of a Plan Testing
6.5 Integration with Existing Systems
6.6 Safety and Regulatory Compliance Aspects
6.7 Staff Training and Knowledge Transfer
6.8 Change Management and Resistance to Change
6.9 Post-Implementation Performance Monitoring and Evaluation
6.20 Case Studies: Successful Strategic Implementations
7.2 Design of Advanced Hybrid Propulsion Systems
7.2 Design of Intelligent and Adaptive Control Systems
7.3 Integration of Emerging Technologies in Hybrid Design
7.4 Design of Advanced Energy Management Systems
7.5 Design of Advanced Cooling and Thermal Management Systems
7.6 Design of Hybrid Propulsion Systems for Extreme Environments
7.7 Design Optimization for Reliability and Sustainability
7.8 Modeling and Simulation Advanced Systems
7.9 Design of Hybrid Propulsion Systems with Innovative Materials
7.20 Case Studies: Advanced Systems in the Naval Sector
8.2 Modeling Techniques for Hybrid Propulsion Systems
8.2 Mathematical Modeling of Components and Systems
8.3 Simulation of Hybrid Propulsion Systems
8.4 Simulation Data Analysis
8.5 Model Validation
8.6 Software Tools for Modeling
8.7 Modeling the Dynamic Behavior of the System
8.8 Modeling Failures and Failure Modes
8.9 Modeling Control Systems
8.20 Case Studies: Modeling Specific Hybrid Systems
3.3 Design Principles for Hybrid Rocket-Electric Systems
3.2 Selection and Sizing of Key Components
3.3 System Integration and Architecture
3.4 Modeling and Simulation of Propulsion Systems
3.5 Design of Control and Energy Management Systems
3.6 Design of Safety and Security Systems
3.7 Performance Analysis and Design Optimization
3.8 Manufacturing and Assembly Considerations
3.9 Regulatory Compliance and Certification
3.30 Case Study: Design of a Specific System
4.4 Hybrid Propulsion System Evaluation Methodologies
4.2 Conceptual Design and Component Selection
4.3 Performance Analysis and Technical Specifications
4.4 System Sizing and Configuration
4.5 Cost-Benefit and Life Cycle Analysis
4.6 Design for Reliability and Maintainability
4.7 System Integration and Energy Management
4.8 Case Studies and Practical Examples
4.9 Detailed Design and Simulation of Subsystems
4.40 Risk Assessment and Mitigation
5.5 Fundamental Principles of Hybrid Rocket-Electric Propulsion
5.5 Key Components of Hybrid Systems
5.3 Architectures of Hybrid Rocket-Electric Systems
5.4 Integration of Rocket and Electric Motors
5.5 Fuel and Propellant Selection
5.6 Combustion Chamber and Nozzle Design
5.7 Safety and Reliability Considerations
5.8 Control and Management of Hybrid Systems
5.9 Thermodynamic and Kinetic Analysis
5.50 Case Studies: Current and Future Applications
5.5 Performance Parameters in Hybrid Propulsion
5.5 Optimizing Thrust and Fuel Consumption
5.3 Designing Control Systems for Efficiency
5.4 Flow and Fluid Dynamics Analysis
5.5 Fuel Combustion and Gas Expansion Modeling
5.6 Trajectory Optimization Strategies
5.7 Material and Component Selection for Performance
5.8 Simulation and Sensitivity Analysis
5.9 Multi-Objective Optimization
5.50 Case Studies: Performance Improvement Examples
3.5 Conceptual Design of Hybrid Propulsion Systems
3.5 Component Selection and Sizing
3.3 Advanced Combustion Chamber Design
3.4 Propulsion System Modeling and Simulation
3.5 Nozzle and Exhaust System Design
3.6 Integration with Control and Management Systems
3.7 Stress Analysis and Structural Design
3.8 Manufacturing and Assembly Considerations
3.9 Design for Reliability and Maintainability
3.50 Case Studies: Specific System Design
4.5 Hybrid Propulsion System Evaluation Methodologies
4.5 Cost-Benefit and Life Cycle Analysis
4.3 System Testing and Validation
4.4 Risk Assessment and Mitigation
4.5 Design for Certification and Regulatory Compliance
4.6 Sensitivity and Tolerance Analysis
4.7 Test Protocol Design
4.8 Performance Evaluation Under Operating Conditions
4.9 Evaluation-Based Design Optimization
4.50 Case Studies: Evaluation of Existing Systems
5.5 Introduction to Advanced Propulsion Simulation
5.5 Simulation and Modeling Tools
5.3 Computational Fluid Dynamics (CFD) Modeling
5.4 Fuel Burning and Propulsion Simulation
5.5 Control System Simulation
5.6 Optimization Based on Simulation
5.7 Sensitivity Analysis and Design of Experiments
5.8 Failure Simulation and Risk Analysis
5.9 Model Validation and Verification
5.50 Case Studies: Advanced Simulation Applications
6.5 Strategic Planning for Implementation
6.5 Technology and Supplier Selection
6.3 Project and Schedule Management
6.4 Change Management and Training
6.5 Integration with Existing Systems
6.6 Scalability and Adaptability Strategies
6.7 Cost and Budget Considerations
6.8 Supply Chain Management
6.9 Regulatory Compliance
6.50 Case Studies: Implementation in Different Contexts
7.5 Design of Advanced Propulsion Systems
7.5 Emerging Technologies in Hybrid Propulsion
7.3 Combustion Chamber Design Innovative
7.4 Advanced Nozzle and Exhaust System Design
7.5 High-Performance Materials and Components
7.6 Intelligent and Adaptive Control Systems
7.7 Design for Mission and Operation
7.8 Reliability and Durability Analysis
7.9 Design for Extreme Environments
7.50 Case Studies: Cutting-Edge System Design
8.5 Principles of Systems Modeling
8.5 Modeling and Simulation Tools
8.3 Modeling Individual Components
8.4 Modeling the Complete System
8.5 Sensitivity Analysis and Optimization
8.6 Model Validation and Verification
8.7 Failure Modeling and Risk Analysis
8.8 Integrating Modeling with Design
8.9 Applications of Modeling in the Product Life Cycle
8.50 Case Studies: Modeling Real-World Hybrid Systems
6. Basic Concepts of Hybrid Rocket-Electric Propulsion
2. Principles of Rocket Propulsion
3. Principles of Electric Propulsion
4. Key Components of Hybrid Systems
5. Comparison of Propulsion Systems
6. Advantages and Disadvantages of Hybrid Propulsion
7. Current and Future Applications
8. Safety and Design Considerations
2. Key Performance Parameters
3. Energy Efficiency Analysis
4. Optimization of Rocket Combustion
5. Optimization of Electrical Efficiency
6. Integration and Control of Hybrid Systems
7. Case Study Analysis
8. Advanced Optimization Techniques
9. Performance Evaluation in Different Scenarios
3. System Design Requirements
4. Selection of Components and Subsystems
5. Design of Rocket-Electric Integration
6. Design of Control and Management Systems
7. System Modeling and Simulation
8. Implementation of Design Strategies
9. Cost and Feasibility
60. Design of testing and validation systems
4. System evaluation methodologies
5. Risk analysis and mitigation
6. Performance evaluation under different conditions
7. Design of energy management systems
8. Design of advanced control systems
9. Selection of materials and technologies
60. Life cycle analysis and sustainability
66. Design for manufacturing and maintenance
5. Advanced simulation tools
6. Modeling of complex systems
7. Optimization of design parameters
8. Simulation of operational scenarios
9. Sensitivity and robustness analysis
60. Validation of models and simulations
66. Multi-objective optimization
62. Application of artificial intelligence in simulation
6. Feasibility analysis and strategic planning
7. Selection of technologies and suppliers
8. Project management and cost control
9. Integration with existing infrastructures
60. Compliance with regulations and standards
66. Strategies for Market launch
62. Change management and staff training
63. Environmental and social impact assessment
7. Design of advanced propulsion systems
8. Integration of emerging technologies
9. Design of intelligent control systems
60. Modeling and simulation of complex systems
66. Performance optimization in extreme scenarios
62. Safety and reliability considerations
63. Design for adaptability and scalability
64. Integration with life support systems
8. Modeling of individual components
9. Modeling of subsystems and complete systems
60. Performance and efficiency analysis
66. Simulation of operating scenarios
62. Failure and reliability analysis
63. Validation of models with experimental data
64. Use of modeling and simulation tools
65. Integration of modeling into the design process
7.7 Introduction to Hybrid Rocket-Electric Propulsion
7.2 Fundamentals of Rocket Propulsion Systems
7.3 Fundamentals of Electric Propulsion Systems
7.4 Integration of Hybrid Systems
7.7 Key Components: Motors, Rockets, Batteries, etc.
7.6 Hybrid System Architectures
7.7 Energy Control and Management
7.8 Component Design and Selection
7.9 Applications and Trends in Hybrid Propulsion
7.70 Case Studies and Practical Examples
2.7 Performance Parameter Analysis
2.2 Propulsion Design Optimization
2.3 Hybrid System Modeling and Simulation
2.4 Control Strategies for Optimization
2.7 Thermal Management and Energy Efficiency
2.6 Analysis of the Influence of Operating Conditions
2.7 Multi-Objective Optimization Methods
2.8 Optimization Tools and Software
2.9 Comparative Evaluation of Different Configurations
2.70 Practical Application Examples
3.7 Design Principles of Rocket-Electric Propulsion Systems
3.2 Rocket Engine Selection and Design
3.3 Design and Selection of Electric Motors
3.4 Fuel Supply System Design
3.7 Control and Management System Design
3.6 Structure Design and Assembly
3.7 Design Simulation and Analysis
3.8 Component Integration
3.9 Design for Reliability and Safety
3.70 Case Studies and Practical Examples
4.7 System Evaluation Methodologies
4.2 Design and Selection Criteria
4.3 Cost-Benefit Analysis
4.4 Life Cycle Analysis
4.7 Performance and Efficiency Evaluation
4.6 Safety and Reliability Evaluation
4.7 Design for Manufacture and Maintenance
4.8 Design Validation and Verification
4.9 Evaluation Tools
4.70 Case Studies and Practical Applications
7.7 Introduction to Hybrid Propulsion Simulation
7.2 Component and System Modeling
7.3 Simulation Software and Tools
7.4 Performance and Efficiency Simulation
7.7 Computational Fluid Dynamics Simulation
7.6 Thermal Management Simulation
7.7 Simulation-Based Optimization
7.8 Sensitivity and Robustness Analysis
7.9 Model Validation
7.70 Case Studies and Practical Applications
6.7 Implementation Strategies
6.2 Feasibility Analysis
6.3 Project Planning and Management
6.4 Risk Management
6.7 Supplier and Contractor Selection
6.6 Implementation and Commissioning
6.7 Testing and Validation
6.8 Regulatory and Certification Aspects
6.9 Change Management
6.70 Case Studies and Examples
7.7 Advanced Rocket Engine Design
7.2 Advanced Electric Motor Design
7.3 Advanced Control System Design
7.4 Energy Management System Design
7.7 Advanced Design Optimization
7.6 Multiphase Flow Analysis
7.7 Innovative Propulsion System Design
7.8 Sensor and Actuator Integration
7.9 Design for Extreme Environments
7.70 Advanced Case Studies
8.7 Introduction to Hybrid System Modeling
8.2 Mathematical Component Modeling
8.3 Control System Modeling
8.4 Thermal System Modeling
8.7 Electrical System Modeling
8.6 Flight Dynamics Modeling
8.7 Modeling Tools and Software
8.8 Model Validation and Verification
8.9 Modeling Applications in Design
8.70 Case Studies and Examples Practical
8.8 Introduction to Hybrid Rocket-Electric Propulsion Systems
8.8 Key Components: Rockets, Electric Motors, Batteries, and Control Systems
8.3 Operating Principles and Configuration of Hybrid Systems
8.4 Conceptual Design: Component Selection and Architectures
8.5 Basic Performance Analysis and Preliminary Simulations
8.6 Advantages and Challenges of Hybrid Systems
8.7 Case Studies: Current and Future Applications
8.8 Key Performance Parameters: Efficiency, Thrust, Fuel Consumption
8.8 Optimization Methods: Component Design, Energy Management
8.3 Performance Modeling: Software and Simulation Tools
8.4 Multi-Objective Optimization: Balancing Performance and Cost
8.5 Sensitivity Analysis and Risk Assessment
8.6 Case Studies: Optimization Strategies in Existing Systems
8.7 Practical Implementation and Experimental Validation
3.8 Modeling of Rocket-Electric Propulsion Systems
3.8 Thermodynamic and Fluid Flow Analysis
3.3 Component Selection and Subsystem Design
3.4 Design of Control and Energy Management Systems
3.5 System Integration and Testing
3.6 System Failure Analysis and Safety
3.7 Documentation and Technical Specifications
4.8 Evaluation of Different Hybrid System Configurations
4.8 Life Cycle Assessment (LCA/LCC)
4.3 Risk and Safety Analysis
4.4 Design of Propulsion Systems for Specific Missions
4.5 Material Selection and Manufacturing Processes
4.6 System Integration and Life Cycle Management
4.7 Case Studies and Best Practices
5.8 Advanced Simulation of Hybrid Propulsion Systems
5.8 Simulation-Based Optimization: Algorithms and Techniques
5.3 Design of Experiments and Analysis of Results
5.4 Integration of Simulation and Optimization into the Design Process
5.5 Simulation Tools: Software and Methods
5.6 Model Validation and Uncertainty Analysis
5.7 Practical Applications and Case Studies
6.8 Implementation Strategies for Different Applications
6.8 Project Management and Development of Propulsion Systems
6.3 Cost and Profitability Considerations
6.4 Supplier Selection and Contract Management
6.5 System Testing and Certification
6.6 Regulatory and Legal Aspects
6.7 Case Studies: Successful Implementation in Different Industries
7.8 Design of Advanced Component Components for Hybrid Systems
7.8 Design of Intelligent Control Systems
7.3 Integration of Complex Systems and Subsystems
7.4 Advanced Performance Analysis and Optimization
7.5 Simulation and Modeling of Complex Systems
7.6 Failure Analysis and Safety of Advanced Systems
7.7 Case Studies of Next-Generation Hybrid Systems
8.8 Thermodynamic and Dynamic Modeling of Propulsion Systems
8.8 Development and Validation of Component Models
8.3 Simulation of Complete Systems
8.4 Sensitivity and Robustness Analysis
8.5 Modeling and simulation tools: software and methods
8.6 Applications of modeling in design and optimization
8.7 Case studies: modeling complex hybrid systems
9. Introduction to Hybrid Rocket-Electric Propulsion Systems
9. Fundamental Principles of Rockets and Electric Motors
3. Key Components: Rockets, Electric Motors, Batteries, and Control Systems
4. Advantages and Disadvantages of Hybrid Propulsion
5. Current and Potential Applications of the Technology
6. Basic Concepts of Thermodynamics and Fluid Mechanics
7. Case Studies and Practical Examples
8. Challenges and Opportunities in the Development of Hybrid Propulsion
9. Safety and Regulatory Fundamentals
9. Analysis of Factors Influencing Performance
3. Optimization of Key Parameters: Specific Impulse, Thrust, Efficiency
4. Control Strategies to Maximize Energy Efficiency
5. Simulation and Modeling of System Performance
6. Selection and Combination of Component Combinations for Optimal Performance
7. System Design Considerations for Efficiency 8. Sensitivity analysis and optimization techniques.
9. Case studies of performance optimization in different applications.
90. Tools and software for optimization.
3. Design requirements of the hybrid propulsion system.
4. Component selection: rockets, electric motors, power sources.
5. Systems integration: rocket-electric coupling, control systems.
6. Performance analysis: calculation of thrust, fuel consumption, range.
7. Structural, thermal, and weight considerations.
8. Design of energy management and control systems.
9. Design for reliability and safety.
90. Design and simulation tools.
99. Case studies of hybrid system design and analysis.
4. Evaluation of different hybrid propulsion system designs.
5. Cost, risk, and benefit analysis.
6. Evaluation of technical and economic feasibility.
7. Selection of components and subsystems.
8. Life cycle analysis.
9. Design criteria: performance requirements, weight and size constraints.
90. System testing and validation.
99. Case studies of hybrid propulsion system evaluation.
5. Modeling of hybrid propulsion systems.
6. Numerical simulation of complex physical phenomena.
7. Advanced simulation software and tools.
8. Optimization using advanced algorithms and methods.
9. Sensitivity analysis and design of experiments.
90. High-fidelity simulation techniques.
99. Case studies of hybrid propulsion simulation and optimization.
99. Interpretation and analysis of simulation results.
6. Strategic planning for system implementation.
7. Identification of applications and target markets.
8. Development of a detailed implementation plan.
9. Risk management and mitigation. 90. Regulatory and Compliance Considerations.
99. Funding and Marketing Strategies.
99. Strategic Implementation Case Studies.
93. Collaboration and Partnerships.
7. Design of High-Performance Component(s).
8. Advanced Materials for Rockets and Electric Motors.
9. Systems Design and Optimization Techniques.
90. Integration of High-Performance Systems.
99. Advanced Performance Analysis.
99. Design for Efficiency and Reliability.
93. Case Studies of Advanced Hybrid System Design.
8. Modeling and Simulation of Propulsion Systems.
9. Performance Analysis and Optimization.
90. Component and System Modeling.
99. Data Analysis and Model Validation.
99. Modeling and Simulation Tools.
93. Case Studies of Modeling and Analysis of Hybrid Propulsion Systems.
1.1 Fundamentals of hybrid rocket-electric propulsion.
1.2 Key components: rockets, electric motors, control systems.
1.3 Systems integration: architecture and initial design.
1.4 Performance analysis and comparison with traditional systems.
1.5 Applications and use cases.
2.1 Performance metrics: efficiency, thrust, fuel consumption.
2.2 Optimization of design parameters: size, weight, power.
2.3 Simulation and modeling techniques for optimization.
2.4 Energy control and management strategies.
2.5 Case studies and practical examples.
3.1 Design principles of hybrid propulsion systems.
3.2 Component selection: rockets, electric motors, batteries.
3.3 System architecture design: integration and distribution.
3.4 Analysis tools: simulation, modeling, and data analysis. 3.5 Safety and Reliability Considerations
4.1 Evaluation of Design Options: Analysis of Advantages and Disadvantages
4.2 Design of Specific Systems for Specific Applications
4.3 Cost and Economic Feasibility Considerations
4.4 System Testing and Validation
4.5 Risk Analysis and Mitigation
5.1 Advanced Simulation Software and Tools
5.2 Modeling of Complex Hybrid Propulsion Systems
5.3 Optimization Techniques: Genetic Algorithms, Linear Programming
5.4 Sensitivity and Robustness Analysis
5.5 Validation of Models and Results
6.1 Implementation Strategies: Phases, Timelines, Resources
6.2 Cost and Budget Considerations
6.3 Project and Team Management
6.4 Regulatory and Legal Aspects
6.5 Case Studies and Best Practices
7.1 Advanced Design of Hybrid Propulsion Systems
7.2 Integration of Emerging Technologies
7.3 Long-Term Performance Analysis
7.4 Design Considerations for Different Applications
7.5 Risk and Opportunity Assessment
8.1 Modeling of Hybrid Propulsion Components and Systems
8.2 Performance Analysis and Simulation
8.3 Validation of Models with Real Data
8.4 Failure and Reliability Analysis
8.5 Continuous Improvement and System Optimization
Final Project — Hybrid Rocket-Electric Propulsion Engineering
9.1 Development of a Hybrid Rocket-Electric Propulsion System
9.2 Design Requirements and Specifications
9.3 Component Selection and System Design
9.4 Simulation and Performance Analysis
9.5 System Testing and Evaluation
- 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
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.
Do you have any questions?
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F. A. Q
Frequently asked questions
Yes, we have international certification
Yes: experimental models, real data, applied simulations, professional environments, real case studies.
It is not mandatory. We offer leveling tracks and tutoring.
Completely. It covers e-propulsion, integration, and emerging regulations (SC-VTOL).
Recommended. There are also internal challenges and consortiums.
Yes. Online/hybrid modality with planned labs and visa support (see “Visa & Residence”).