Radiator and MLI course in space
About our
The Radiators and MLI in Space course explores the design and optimization of thermal management systems for satellites and spacecraft. It focuses on the study of radiators, crucial components for heat dissipation, and on the analysis of Multi-Layer Insulation (MLI), essential thermal insulation systems in the space environment. It addresses concepts such as radiant heat transfer, the selection of materials with high thermal properties, and the modeling of complex systems using simulation tools. The course focuses on the practical application of this knowledge to ensure the operation and longevity of space missions.
The course includes case studies and analyses of thermal modeling, FEA analysis, and the design of radiation panels. The course also covers material selection and the calculation of heat flows in a vacuum, considering the unique challenges of the space environment, such as exposure to solar radiation and the lack of convection. This knowledge prepares students for roles such as thermal engineers, space systems designers, and thermal control specialists, driving innovation in space exploration.
Radiator and MLI course in space
- Format: Hybrid
- Duration: 3 months
- Hours: 300 H
- Language: English / Spanish
- Registration date: 23-10-2026
- Start date: 12-12-2026
- Available places: 3
620 $
Competencies and results
What you will learn
1. Design and Analysis of Radiators and MLI for Space Environments
- Master the fundamentals of thermal design for space applications, including heat transfer by conduction, convection, and radiation.
- Analyze and design space radiators optimized for heat dissipation in a vacuum, considering material and coating selection.
- Understand and apply Multi-Layer Insulation (MLI) design principles to minimize unwanted heat transfer in space environments.
- Evaluate the performance of radiators and MLIs through numerical simulations using specialized software.
- Identify and mitigate the effects of the space environment, such as solar radiation and micrometeorites, on the design of thermal systems.
- Apply relevant regulations and standards for the design and manufacture of space thermal systems.
- Perform sensitivity analyses to optimize the design of radiators and MLIs based on performance and mass requirements.
- Study case studies Practical experience in the design of thermal systems for real space missions.
Understand and apply testing and verification techniques to ensure the reliability and performance of radiators and MLIs in space.
Explore the latest trends and technologies in the design of space thermal systems, including advanced materials and manufacturing methods.
2. Thermal Optimization of Radiators and MLI: Design and Simulation in Space
- Understand the fundamentals of thermodynamics and heat transfer, essential for radiator design.
- Master the analysis of thermal radiation, convection, and conduction, applied to space environments.
- Design efficient radiators, considering materials, geometries, and operating conditions in a vacuum.
- Learn about numerical simulation techniques (CFD and FEM) for the thermal optimization of radiators.
- Study the properties of materials used in radiators, including their limitations in space.
- Design and analyze Multilayer Insulation (MLI) systems for thermal control in spacecraft.
- Evaluate the performance of MLI systems, considering degradation due to the space environment.
- Use thermal simulation software to model and optimize radiators and MLI systems.
- Apply thermal design techniques to different types of space missions and platforms.
Understand the regulations and standards related to the design and manufacture of space 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. Design and Evaluation of Radiation and Thermal Insulation Systems in Space
- Understand the fundamental principles of heat transfer by radiation and conduction in the vacuum of space.
- Study the properties of materials used for the design of thermal insulation systems in space environments.
- Analyze modeling and simulation techniques to evaluate the thermal performance of radiation and insulation systems.
- Design efficient radiation systems, considering factors such as surface emissivity and solar radiation absorption.
- Evaluate different types of thermal insulation, including multi-layers, insulating blankets, and spacers.
- Apply specialized software for the thermal analysis and design of radiation and insulation systems.
- Identify and mitigate the effects of material degradation due to exposure to space radiation.
- Optimize the design of radiation and insulation systems to minimize weight and maximize efficiency.
- Understand the testing and certification requirements for thermal systems. spacecraft.
Explore the applications of radiation and shielding systems in different types of spacecraft and satellites.
5. Application of Radiators and MLI: Spatial Thermal Analysis and Control
- Understand the fundamental principles of heat transfer in space.
- Evaluate the performance of space radiators and multilayer insulation (MLI) systems.
- Apply thermal analysis techniques for the design and optimization of space systems.
- Identify and mitigate the risks associated with thermal management in extreme space environments.
- Use specialized software to simulate and analyze the thermal behavior of components and systems.
- Design and select appropriate materials for radiator and MLI applications, considering thermal properties and resistance to the space environment.
- Understand active and passive thermal control methods, including the use of thermostats, heaters, and heat sinks.
- Interpret telemetry data to monitor the thermal performance of satellites and other spacecraft.
- Apply relevant standards and norms for the design and manufacture of space thermal management systems.
- Conduct case studies and analyses of successful and failed space thermal system designs.
6. Analysis and Design of Space Thermal Control Systems with Radiators and MLI
6. What will you learn?
- Fundamentals of heat transfer by radiation, conduction, and convection in the space environment.
- Design principles of space radiators, including materials, configuration, and thermal performance.
- Design and analysis of Multilayer Insulation (MLI) for thermal management in space.
- Simulation and modeling of space thermal control systems using computational tools.
- Optimization of space thermal systems to maximize efficiency and reliability.
- Sensitivity analysis and case studies of space thermal control systems.
Who this program is for:
Radiator and MLI course in space
- Engineers with degrees in Aerospace, Mechanical, Industrial, or related fields.
- Experts from Operative Aircraft Manufacturers (OEMs), Maintenance, Repair, and Overhaul (MRO) companies, and consulting firms.
- Professionals from research and technological development centers.
- Specialists in flight testing, aeronautical certification, avionics systems, flight control, and aircraft dynamics.
- Personnel from regulatory bodies and aviation authorities involved in UAM/eVTOL.
Recommended Prerequisites: Fundamental knowledge of aerodynamics, systems control, and structures. Language: Proficiency in Spanish or English at level B2/C1.
- 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 Principles of Heat Transfer in Space: Conduction, Convection, and Radiation
1.2 Fundamentals of Space Radiator Design: Materials, Geometries, and Efficiencies
1.3 Thermal Analysis of Radiators: Modeling and Simulation
1.4 Multilayer Insulation (MLI) Design: Principles and Applications
1.5 MLI Performance Analysis: Calculation of Effective Thermal Conductivity
1.6 Material Selection for Radiators and MLI: Properties and Space Considerations
1.7 Impact of Material Degradation on Thermal Performance
1.8 Software and Simulation Tools for Design and Analysis
1.9 Experimental Validation of Radiator and MLI Designs
1.10 Case Studies: Examples of Radiator and MLI Design in Real Space Missions
2.2 Introduction to Space Thermodynamics
2.2 Conceptual Design of Space Radiators
2.3 Selection of Radiator Materials
2.4 Radiant Heat Transfer Analysis
2.5 Radiator Simulation and Modeling
2.6 Thermal Performance Analysis
2.7 Critical Design Factors
2.8 Case Studies: Existing Radiators
2.9 Thermal Simulation Software
2.20 Validation of Results
2.2 Thermal Optimization Methods
2.2 Parametric Radiator Design
2.3 Optimization of Radiator Area and Shape
2.4 Thermal Sensitivity Analysis
2.5 Emissivity Improvement Techniques
2.6 Heat Pipe Design
2.7 Advanced Radiator Simulation
2.8 Integration with Thermal Control Systems
2.9 Impact on Mass and Cost
2.20 Comparative Design Studies
3.2 Fundamentals of Thermal Radiation
3.2 Properties of Space Materials
3.3 Multilayer Insulation (MLI) Design
3.4 Heat Transfer Analysis in MLI
3.5 MLI Fabrication Techniques
3.6 Material Selection for MLI
3.7 Integration of MLI into Satellite Design
3.8 Thermal Shield Design
3.9 MLI Testing and Validation
3.20 Simulation of Insulation Systems
4.2 Thermal System Design Requirements
4.2 Thermal System Components
4.3 Radiator Design for Satellites
4.4 MLI Design for Different Applications
4.5 Selection of Thermal Control Devices
4.6 Integration of Thermal Control Systems
4.7 Heat Flow Analysis
4.8 Thermal Bus Design
4.9 Simulation and Analysis of the Complete System
4.20 Risk Assessment and Mitigation
5.2 Space Thermal Environment Analysis
5.2 Heat Flow Modeling
5.3 Design of Passive Thermal Control Systems
5.4 Design of Active Thermal Control Systems
5.5 Thermal Sensors and Actuators
5.6 Thermal Control Algorithms
5.7 Simulation of Thermal Control Systems
5.8 Thermal Stability Analysis
5.9 Ground Validation Testing
5.20 System Operation and Maintenance
6.2 Thermal Control System Architecture
6.2 Passive Thermal Control Subsystems
6.3 Active Thermal Control Subsystems
6.4 Sensor and Actuator Design
6.5 Implementation of Control Strategies
6.6 Reliability and Redundancy Considerations
6.7 Control System Integration
6.8 System Testing and Verification
6.9 System Performance Optimization
6.20 Case Studies of Success Stories
7.2 Radiator Evaluation Methodologies
7.2 Radiator Laboratory Testing
7.3 Test Data Analysis
7.4 Radiator Modeling
7.5 Thermal Performance Evaluation
7.6 Design of Experiments for Evaluation
7.7 Comparison of Different Designs
7.8 Sensitivity Analysis of Variables
7.9 Evaluation of Radiator Lifespan
7.20 Results Report and Recommendations
8.2 Thermal Optimization Methodologies
8.2 Radiator Design Optimization
8.3 Optimized MLI Design
8.4 Thermal System Simulation Complexes
8.5 Mass and Cost Impact Analysis
8.6 Space Performance Optimization
8.7 Implementation of Advanced Control Techniques
8.8 Risk Analysis and Mitigation
8.9 Optimization Case Studies
8.20 Presentation of Results and Conclusions
3.3 Principles of Thermal Radiation and Heat Transfer
3.2 Conceptual Design of Radiators for Space
3.3 Material Selection for Radiators and Multilayer Insulation (MLI)
3.4 Design and Analysis of Multilayer Insulation (MLI)
3.5 Thermal Simulation and Modeling in Space Environments
3.6 Optimization of Radiators and MLI for Different Applications
3.7 Integration of Radiators and MLI into Thermal Control Systems
3.8 Performance Evaluation and Design Validation
3.9 Advanced Technologies in Radiators and MLI
3.30 Case Studies: Real Space Applications
4.4 Fundamentals of Radiative Heat Transfer in Space
4.2 Design Principles of Space Radiators: Materials and Configurations
4.3 Thermal Analysis of Radiators: Calculations and Simulations
4.4 Design and Analysis of Multilayer Insulation (MLI): Materials and Layers
4.5 Modeling and Simulation of MLI for Space Applications
4.6 Software Tools for Thermal Design and Analysis
4.7 Material Selection for Radiators and MLI: Space Considerations
4.8 Evaluation of Thermal Performance: Efficiency and Heat Dissipation
4.9 Case Studies: Examples of Radiator and MLI Design
2.4 Radiator Optimization Strategies: Geometry and Materials
2.2 Optimizing MLI Design to Minimize Heat Transfer
2.3 Advanced Numerical Simulation: CFD and Thermal Analysis
2.4 Weight and Volume Reduction Techniques in Thermal Designs
2.5 Optimizing Thermal Performance Under Variable Conditions
2.6 Software Applications for Thermal Optimization
2.7 Impact of Orientation and Orbit on Optimization
2.8 Test Design and Validation of Optimized Thermal Models
2.9 Case Studies: Optimization of Space Thermal Systems
3.4 Fundamentals of Thermal Radiation: Stefan-Boltzmann Law and Emissivity
3.2 Radiation Engineering: Control and Manipulation of Thermal Radiation
3.3 Design of Surfaces with Specific Radiative Properties
3.4 MLI Design Principles: Layers, Spacers, and Materials
3.5 MLI Engineering: Assembly and Manufacturing Techniques
3.6 Simulation Tools for Radiation Engineering and MLI
3.7 Applications of Coatings and Surface Treatments
3.8 Test Design and Experimental Validation of Radiation Systems
3.9 Case Studies: Examples of Radiation Engineering and MLI in Satellites
4.4 Design of Space Thermal Systems: Components and Subsystems
4.2 Radiator Design: Requirements, Specifications, and Constraints
4.3 MLI Design: Configuration, Layers, and Thermal Performance
4.4 Thermal Performance Evaluation: Analysis and Simulations
4.5 Evaluation of Structural Integrity and Resistance to Space Conditions
4.6 Design of Tests and Validation of Thermal Prototypes
4.7 Integration of Thermal Systems into Space Platforms
4.8 Cost and Feasibility Considerations in Thermal Design
4.9 Examples of Design and Evaluation of Space Thermal Systems
5.4 Radiator Applications in Satellites and Space Probes
5.2 MLI Applications for Thermal Control in Space
5.3 Radiator Performance Analysis in Different Orbital Environments
5.4 MLI Performance Analysis in the Presence of Solar Radiation and Particles
5.5 Thermal Control Techniques: Heaters, Thermistors, and Sensors
5.6 Design of Thermal Control Systems: Control Loops and Algorithms
5.7 Implementation of Thermal Control Systems: Hardware and Software
5.8 Evaluation of the Effectiveness of Thermal Control Systems
5.9 Case Studies: Specific Radiator and Sensor Applications MLI
6.4 Principles of Thermal Control: Sensors, Actuators, and Algorithms
6.2 Design of Thermal Control Systems with Radiators
6.3 Design of Thermal Control Systems with MLI
6.4 Stability and Performance Analysis of Control Systems
6.5 Simulation and Modeling of Thermal Control Systems
6.6 Implementation of Thermal Control Systems: Hardware and Software
6.7 Integration of Thermal Control Systems on Space Platforms
6.8 Validation and Verification of Thermal Control Systems
6.9 Case Studies: Examples of Space Thermal Control
7.4 Evaluation of Radiators: Performance, Efficiency, and Reliability
7.2 Evaluation of MLI: Performance, Efficiency, and Reliability
7.3 Testing and Measurement Techniques for Radiators and MLI
7.4 Analysis of Test Data and Simulation
7.5 Evaluation of the Impact of Environmental Factors on Thermal Performance
7.6 Evaluation of the Service Life and Degradation of Materials
7.7 Risk Assessment and Mitigation in Thermal Design
7.8 Regulations and Standards for the Evaluation of Thermal Systems
7.9 Case Studies: Examples of Radiator and MLI Evaluation
8.4 Analysis of Design Requirements for Radiant and MLI Systems
8.2 Conceptual and Preliminary Design of Thermal Systems
8.3 Detailed Design and Optimization of Radiant Systems
8.4 Detailed Design and Optimization of MLI Systems
8.5 Advanced Thermal Simulation and Analysis
8.6 Integration of Components and Subsystems
8.7 Performance Evaluation and Validation
8.8 Manufacturing and Assembly Considerations
8.9 Case Studies: Examples of Space Thermal Design and Optimization
5.5 Fundamental Principles of Space Radiator Design
5.5 Material Selection for Space Radiators
5.3 Calculation of Radiation and Thermal Absorption Capacity
5.4 Thermal Simulation Using Specialized Software
5.5 Analysis of the Influence of the Space Environment on Performance
5.5 Radiator Design Optimization Techniques
5.5 Optimization of Radiator Surface and Geometry
5.3 Simulation Methods for Thermal Optimization
5.4 Evaluation of the Efficiency of Optimized Radiators
5.5 Sensitivity and Robustness Analysis of the Design
3.5 Principles of Thermal Insulation Engineering
3.5 Design and Analysis of Multilayer Insulation (MLI)
3.3 Material Selection for Thermal Insulation
3.4 Simulation Techniques for MLI Analysis
3.5 Control of Heat Transfer in Space Environments
4.5 Design of Thermal Radiation Systems for Satellites
4.5 Design of Thermal Insulation Systems for Satellites
4.3 Integration of Radiators and MLI in Space Systems
4.4 Performance Evaluation of Space Thermal Systems
4.5 Testing and Validation of Radiation and Insulation Systems
5.5 Radiator Applications in Satellites and Space Probes
5.5 Performance Analysis of Radiators in Different Missions
5.3 MLI Applications in Various Space Configurations
5.4 Case Studies of Space Thermal Analysis
5.5 Design and Evaluation of Thermal Control Systems
6.5 Principles of Space Thermal Control
6.5 Design of Active and Passive Thermal Control Systems
6.3 Implementation of Radiators and MLI in Control Systems
6.4 Performance Analysis of Thermal Control Systems
6.5 Thermal Control Strategies for Space Missions
7.5 Evaluation Methods for Radiators in Space Applications
7.5 Evaluation Methods for MLI in Space Applications
7.3 Performance Testing of Radiators and MLI in a Vacuum
7.4 Data Analysis and Reporting of Results
7.5 Considerations Design for evaluation
8.5 Radiant system optimization techniques
8.5 MLI design optimization
8.3 Trade-off analysis in thermal system design
8.4 Simulation and analysis of optimized thermal systems
8.5 Design and evaluation of efficient thermal systems
6.6 Principles of Thermodynamics and Space Heat Transfer
6.2 Design of Thermal Radiators: Geometry and Materials
6.3 Radiator Performance Analysis: Methods and Software
6.4 Design and Analysis of Multilayer Insulation (MLI)
6.5 Simulation and Validation of Space Thermal Systems
6.6 Material Selection for Space Environments
6.7 Simulation Tools for Thermal Design
6.8 Case Studies: Design and Analysis of Radiators in Satellites
2.6 Radiator Optimization: Key Factors and Techniques
2.2 Advanced Simulation of Space Thermal Systems
2.3 Parametric Design and Sensitivity Analysis
2.4 Evaluation of Materials and Coatings
2.5 Thermal Modeling and Simulation in Space Environments
2.6 Cost-Benefit Analysis in Thermal Design
2.7 Weight and Volume Minimization Techniques
2.8 MLI Optimization for Specific Applications
3.6 Fundamentals of Thermal Radiation in Space
3.2 Design and Selection of Radiator Materials
3.3 Multilayer Insulation (MLI) Engineering: Design and Applications
3.4 Radiative Heat Transfer Simulation
3.5 Effects of Solar and Terrestrial Radiation
3.6 Passive and Active Thermal Control Techniques
3.7 Characterization and Testing of Thermal Systems
3.8 Design and Analysis of Thermal Protection Systems
4.6 Design of Thermal Radiation Systems for Satellites
4.2 Design and Evaluation of MLI in the Space Context
4.3 Heat Transfer Analysis in Space Systems
4.4 Simulation and Modeling of Thermal Systems
4.5 Testing and Validation Thermal Control Systems
4.6 Component and Material Selection
4.7 Design of Active Thermal Control Systems
4.8 Case Studies: Evaluation of Insulation Systems
5.6 Applications of Thermal Radiators in Space
5.2 Performance Analysis of Radiators in Different Environments
5.3 Applications of Multilayer Insulation (MLI) in Satellites and Space Probes
5.4 Thermal Control in Space Missions: Practical Cases
5.5 Design and Analysis of Thermal Control Systems
5.6 Selection of Thermal Sensors and Actuators
5.7 Simulation and Validation of Control Systems
5.8 Case Studies: Specific Applications
6.6 Design of Space Thermal Control Systems
6.2 Selection and Design of Radiators for Thermal Control
6.3 Design and Implementation of Multilayer Insulation (MLI)
6.4 Simulation and Modeling of Thermal Control Systems
6.5 Integration of Sensors and Actuators
6.6 Temperature Control in Space Components
6.7 Stability and Performance Analysis
6.8 Case Studies: Design of Thermal Control Systems
7.6 Evaluation Criteria for Space Radiators
7.2 Performance and Efficiency Analysis of Radiators
7.3 Evaluation of Materials and Coatings
7.4 Design and Optimization of Multilayer Insulation (MLI)
7.5 Simulation and Validation of Designs
7.6 Testing and Characterization of Radiators
7.7 Failure Analysis and Risk Mitigation
7.8 Case Studies: Evaluation of Existing Radiators
8.6 Analysis and Design of Radiating Systems and MLI
8.2 Optimization of Radiator Design
8.3 Optimization of Multilayer Insulation
8.4 Advanced Thermal Modeling and Simulation
8.5 Sensitivity Analysis and Parametric Optimization
8.6 Design for Hostile Space Environments
8.7 Implementation and Validation of Solutions
8.8 Case Studies: Optimization of Thermal Systems
- 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”).