Course on new materials in battery cells
About our
New Materials in Battery Cells Course
Explore the advancement of materials science and electrochemical engineering in the design of high-performance batteries. It focuses on the research and application of new electrodes, electrolytes, and separators, including materials such as lithium ions, solids, and solid-state materials. The course addresses the impact of these innovations on the energy density, safety, durability, and sustainability of battery cells, examining material characterization techniques and computational simulation for performance optimization.
Participants will gain knowledge in battery manufacturing, life cycle analysis, and thermal management, with an emphasis on material integration in energy storage systems for electric vehicles (EVs), stationary energy storage (ESS), and wearable devices. The course culminates with a focus on future trends and challenges in battery research, promoting innovation in this field critical to the energy transition.
Course on new materials in battery cells
- Format: Hybrid
- Duration: 3 months
- Hours: 300 H
- Language: English / Spanish
- Registration date: 23-10-2026
- Start date: 12-12-2026
- Available places: 3
249 $
Competencies and results
What you will learn
1. Battery Development and Optimization: New Materials and Cell Performance
- Exploration of the fundamental chemistry and physics of batteries.
- Study of advanced materials for electrodes and electrolytes.
- Analysis of the design and manufacturing of high-performance battery cells.
- Evaluation of optimization techniques for energy and power density.
- Understanding of degradation mechanisms and strategies for durability.
- Research into emerging energy storage technologies.
- Application of computational models to simulate battery behavior.
- Analysis of the factors that influence battery efficiency and lifespan.
- Study of battery management systems (BMS) and their importance.
- Development of skills for battery characterization and testing.
2. Rotor Design and Analysis: Advanced Modeling and Energy Efficiency
- Model and simulate the dynamic behavior of rotors under complex loads.
- Optimize rotor design to maximize energy efficiency.
- Apply advanced finite element analysis (FEA) techniques.
- Evaluate rotor aerodynamics and its impact on performance.
- Study fluid-structure interaction (FSI) in rotor design.
- Understand the design and analysis principles of rotor blades.
- Analyze flap-lag-torsion couplings, whirl flutter, and fatigue.
- Dimension laminates in composites, joints, and bonded joints using FE.
- Implement damage tolerance and NDT (UT/RT/thermography).
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. Battery Cell Research and Optimization: Advanced Materials and Simulation
- Understand battery thermodynamics and fundamental electrochemical principles.
- Explore the different types of electrode and electrolyte materials used in battery cells, including their properties and limitations.
- Analyze the structure and operation of battery cells, including charging and discharging processes, and the factors that affect their performance.
- Study computational simulation techniques for modeling the behavior of battery cells, including current flow simulation, temperature distribution, and material degradation.
- Investigate the impact of advanced materials, such as new electrodes and electrolytes, on the performance and lifespan of battery cells.
- Learn to use simulation tools and specialized software to optimize the design and performance of battery cells.
- Evaluate battery cell characterization and testing techniques, including the measurement of Capacity, internal resistance, and lifespan.
Explore the applications of battery cells in different industries, such as automotive, electronics, and energy storage.
Analyze the challenges and future trends in battery cell research and development, including the search for more efficient and sustainable materials.
Develop skills in research, data analysis, and presenting results in the field of battery cells.
5. Battery Innovation: Advanced Materials, Cell Simulation and Performance
## What will you learn?
5. Battery Innovation: Advanced Materials, Cell Simulation, and Performance
Understand the composition and structure of modern batteries, including anodes, cathodes, electrolytes, and separators.
Explore advanced battery materials, such as novel electrode materials, solid-state electrolytes, and performance-enhancing additives.
Master cell simulation techniques to model the electrochemical behavior of batteries, including reaction kinetics, ion diffusion, and charge transfer.
Use simulation software to optimize battery design, predict performance, and analyze durability.
Analyze the factors that affect battery performance, such as capacity, energy efficiency, charge/discharge rate, and lifespan.
Evaluate different performance metrics and understand how they relate to specific battery applications.
Study the strategies To improve battery safety, including the prevention of overcharging, short circuits, and thermal runaway.
Identify emerging battery technologies, such as metal-air batteries, flow batteries, and solid-state batteries.
Analyze the environmental impact of battery production and recycling, and explore sustainable solutions.
Apply the acquired knowledge to design, evaluate, and optimize battery systems for various applications, such as electric vehicles, renewable energy storage, and portable electronic devices.
6. Advances in Batteries: Cutting-Edge Materials, Cell Modeling and Optimization
Here is the requested content:
6. Advances in Batteries: Cutting-Edge Materials, Cell Modeling, and Optimization
- Overview of future trends and challenges in battery development, including sustainability and recycling.
Identification of the most promising materials for high-performance batteries: lithium-ion, solid-state, metal-air, and others.
Understanding the chemistry and physics underlying different types of batteries and their limitations.
Exploring advanced cell modeling techniques to simulate the electrochemical behavior of batteries at the microscopic level.
Analyzing the factors that affect battery life and safety, including degradation and failure mechanisms.
Studying battery optimization strategies to improve energy density, power, efficiency, and durability.
Evaluating battery characterization and testing methods, including electrochemical and spectroscopic techniques.
Applying acquired knowledge to the design and selection of batteries for various applications, such as electric vehicles and energy storage. of renewable energy and portable devices.
Who this program is for:
Course on new materials in battery cells
- Graduates in Aerospace Engineering, Mechanical Engineering, Industrial Engineering, Automation Engineering, or related fields.
- Professionals from OEM rotorcraft/eVTOL, MRO, consulting, technology centers.
- Flight Testing, certification, avionics, control, and dynamics seeking specialization.
- Regulators/authorities and UAM/eVTOL professionals requiring compliance skills.
Recommended qualifications: foundation in aerodynamics, control, and structures; ES/EN B2+/C1. We offer bridging tracks if you 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.
2. Module 2 — Rotor Design and Analysis: Energy Efficiency
2.1 Introduction to Rotor Aerodynamics: Basic Principles
2.2 Rotor Airfoil Design: Optimization
2.3 CFD Analysis of Rotors: Simulation and Validation
2.4 Rotor Design: Methodologies and Tools
2.5 Structural Analysis of Rotors: Strength and Durability
2.6 Rotor Design Optimization: Energy Efficiency
2.7 Rotor Design with Composite Materials: Advantages and Challenges
2.8 Rotor Modeling and Simulation in Flight: Dynamics
2.9 Rotor Testing and Trials: Experimental Validation
2.10 Case Studies: Analysis of Successful Designs and Lessons Learned
3. Module 3 — Research and Application of Innovative Materials for Battery Design
3.1 Introduction to Battery Materials: Types and Characteristics
3.2 Cathode Materials: Research and Development
3.3 Anode Materials: New Trends
3.4 Electrolytes: Design and Optimization
3.5 Separators: Functions and Materials
3.6 Composite Materials in Batteries: Applications
3.7 Nanomaterials for Batteries: Perspectives
3.8 Characterization of Battery Materials: Techniques
3.9 Applications of Innovative Materials in Batteries
3.10 Case Studies: Materials in Next-Generation Batteries
4. Module 4 — Battery Cell Research and Optimization: Advanced Materials and Simulation
4.1 Operating Principles of Battery Cells
4.2 Advanced Materials for Battery Cells: Cathodes
4.3 Advanced Materials for Battery Cells: Anodes
4.4 Electrolytes and Separators in Battery Cells
4.5 Battery Cell Modeling and Simulation: Tools
4.6 Optimization of Battery Cell Design
4.7 Thermal Effects in Battery Cells: Analysis
4.8 Battery Cell Degradation: Models and Prediction
4.9 Battery Cell Testing and Characterization
4.10 Case Studies: Innovation in Battery Cells Battery
5. Module 5 — Battery Innovation: Advanced Materials, Cell Simulation, and Performance
5.1 Current Trends in Battery Technology
5.2 Future Battery Materials: Research
5.3 Battery Cell Simulation and Modeling: Software
5.4 Cell Design and Optimization: Simulation
5.5 Impact of Design on Battery Performance
5.6 Strategies for Improving Energy Density
5.7 Methods for Increasing Battery Lifespan
5.8 Battery Characterization and Testing: Analysis
5.9 Integrating Batteries into Systems: Design
5.10 Case Studies: Battery Advancements and Applications
6. Module 6 — Battery Advancements: Cutting-Edge Materials, Cell Modeling, and Optimization
6.1 Current and Future Overview of Battery Technology
6.2 Cutting-Edge Battery Materials: Research
6.3 Cell Modeling and Simulation: Software and Methods
6.4 Cell Design Optimization: Strategies
6.5 Improving Battery Performance and Efficiency Batteries
6.6 Thermal Management Techniques in Batteries
6.7 Battery Testing and Characterization: Analysis
6.8 Integration of Batteries into Electrical Systems
6.9 Safety Aspects in Battery Design
6.10 Case Studies: Application of Advanced Technologies
7. Module 7 — Battery Innovation: Materials of the Future and Cell Optimization
7.1 Trends in Battery Innovation: Overview
7.2 Emerging Materials for Batteries: Perspectives
7.3 Battery Cell Design and Optimization
7.4 Cell Modeling and Simulation: Tools
7.5 Improving Energy Density in Batteries
7.6 Increasing Battery Lifespan and Safety
7.7 Battery Management Systems: Design
7.8 Battery Characterization and Testing: Analysis
7.9 Advanced Battery Applications: Innovation
7.10 Case Studies: Trends and Examples
8. Module 8 — Battery Modeling and Simulation: Innovative Materials and Cell Optimization
8.1 Introduction to Modeling and Simulation of batteries
8.2 Innovative Materials: Impact on Modeling
8.3 Electrochemical Modeling of Battery Cells
8.4 Thermal Simulation and Temperature Management
8.5 Optimizing Cell Design through Simulation
8.6 Modeling Battery Degradation and Aging
8.7 Modeling and Simulation of Battery Management Systems
8.8 Model Validation: Testing and Analysis
8.9 Applications of Modeling in Battery Design
8.10 Case Studies: Simulation in Battery Innovation
2.2 Rotor Design Principles: Aerodynamics and Fundamentals
2.2 Advanced 3D Rotor Modeling: Software and Techniques
2.3 Computational Flow Analysis (CFD) in Rotors: Simulation and Optimization
2.4 Advanced Materials in Rotors: Selection and Applications
2.5 Energy Efficiency in Rotors: Design and Strategies
2.6 Vibration Control in Rotors: Design and Mitigation
2.7 Structural Analysis of Rotors: Loads and Strength
2.8 Design for Manufacturing (DFM) of Rotors: Processes and Optimization
2.9 Rotor Testing and Validation: Wind Tunnels and Testing
2.20 Rotor Applications in the Marine Sector: Design and Performance
3.3 Selection and Characterization of Advanced Materials
3.2 Battery Cell Design with New Materials
3.3 Simulation and Modeling of Material Behavior
3.4 Optimization of Battery Structure
3.5 Battery Performance and Durability Testing
3.6 Failure Analysis and Degradation Mechanisms
3.7 Recycling Techniques and Material Sustainability
3.8 Battery Design for Specific Applications
3.9 Feasibility Studies and Cost Analysis
3.30 Presentation of Results and Future Trends
2.3 Rotor Design Principles and Aerodynamics
2.2 3D Rotor Modeling and CFD Analysis
2.3 Rotor Design Optimization
2.4 Rotor Materials and Manufacturing
2.5 Rotor Vibration and Noise Analysis
2.6 Rotor Performance and Efficiency Testing
2.7 Airflow Simulation and Effect of Ground
2.8 Integration of Rotors in Propulsion Systems
2.9 Selection of Rotors for Different Applications
2.30 Evaluation of Energy Efficiency and Operating Costs
3.3 Research of Electrode Materials
3.2 Study of Electrolyte Materials
3.3 Analysis of Separator Materials
3.4 Selection of Materials and Their Application in Batteries
3.5 Analysis of Material Compatibility and Stability
3.6 Development of Manufacturing Processes
3.7 Testing and Characterization of Materials
3.8 Design of Battery Cells with New Materials
3.9 Evaluation of Durability and Safety
3.30 Sustainability and Recycling of Materials
4.3 Design and Modeling of Battery Cells
4.2 Simulation of Electrochemical Behavior
4.3 Optimization of Cell Design
4.4 Advanced Materials for Cells
4.5 Analysis of the Electrolyte-Electrode Interface
4.6 Evaluation of Performance and Efficiency
4.7 Safety and Degradation Studies
4.8 Battery Management System Design
4.9 Numerical Optimization Techniques
4.30 Experimental Validation and Results Analysis
5.3 High-Energy Electrode Materials
5.2 Advanced Solid-State and Liquid Electrolytes
5.3 Battery Cell Design with Innovative Materials
5.4 Performance Simulation and Modeling
5.5 Design Optimization for Longer Lifespan
5.6 Battery Management Systems
5.7 Performance Testing and Data Analysis
5.8 Integration into Energy Systems
5.9 Battery Sustainability and Recycling
5.30 Future Perspectives and Market Trends
6.3 Advances in Positive and Negative Electrode Materials
6.2 Multiscale Battery Cell Modeling
6.3 Cell Behavior Simulation
6.4 Parameter Optimization Design
6.5 Advanced Battery Management Systems
6.6 Performance Testing and Data Analysis
6.7 Strategies for Extending Battery Life
6.8 Integration into Specific Applications
6.9 Cost and Sustainability Analysis
6.30 Future Trends and Emerging Applications
7.3 Future Electrode Materials
7.2 Solid-State and Mixed-Solid Electrolytes
7.3 Cell Design with Innovative Materials
7.4 Cell Performance Simulation
7.5 Energy Density Optimization
7.6 Safety and Durability Analysis
7.7 Cell Performance Modeling and Simulation
7.8 Integration into Different Applications
7.9 Sustainability and Battery Lifecycle
7.30 Emerging Trends and Challenges
8.3 Battery Component Modeling
8.2 Individual Cell Simulation
8.3 Modeling of Battery Systems
8.4 Advanced Materials and Their Properties
8.5 Optimization of Design Parameters
8.6 Performance and Efficiency Analysis
8.7 Safety and Degradation Studies
8.8 Model Integration and Simulation
8.9 Applications and Case Studies
8.30 Trends and Future Development
4.4 Introduction to Battery Chemistry and Physics
4.2 Selection and Characterization of Electrochemical Materials
4.3 Electrode Design: Materials and Manufacturing Techniques
4.4 Electrolyte Optimization: Composition and Additives
4.5 Cell Assembly and Testing: Procedures and Analysis
4.6 Optimization of Energy Density and Power
4.7 Strategies for Improving Lifespan and Safety
4.8 Electrochemical Modeling of Battery Cells
4.9 Failure Analysis and Mitigation in Batteries
4.40 Case Studies and Future Trends in Batteries
2.4 Principles of Rotor Aerodynamics
2.2 CFD and FEA Modeling for Rotor Design
2.3 Composite Materials and Their Application in Rotors
2.4 Rotor Design Optimized for Energy Efficiency
2.5 Vibration and Noise Analysis in Rotors
2.6 Design of Flight Control Systems for Rotors
2.7 Performance Analysis and Simulation Methods
2.8 Optimization of Rotor Shape and Profile
2.9 Integration of Rotors with Propulsion Systems
2.40 Life Cycle Assessment and Sustainability of Rotors
3.4 Cathode Materials: New Developments and Trends
3.2 Anode Materials: Graphene, Silicon, and Others
3.3 Solid and Polymeric Electrolytes
3.4 Additives and Modifiers for Performance Enhancement
3.5 Materials Characterization Techniques
3.6 Synthesis and Processing of Advanced Materials
3.7 Electrode-Electrolyte Interface Analysis
3.8 Specific Applications and Challenges of Materials
3.9 Sustainability and Recycling of Battery Materials
3.40 Research into New Materials and Future Perspectives
4.4 Battery Cell Modeling and Simulation
4.2 Electrode and Electrolyte Simulation
4.3 Thermal Modeling of Battery Cells
4.4 Battery Degradation Analysis
4.5 Optimization of Cell Design Parameters
4.6 Use of Simulation Software (COMSOL, etc.)
4.7 Experimental Validation of Models Simulation
4.8 Analysis of cell safety and performance
4.9 Cell design for specific applications
4.40 Impact of simulations on battery design
5.4 Anode materials: silicon, lithium-metal, and graphene
5.2 Cathode materials: Ni-rich, LFP, and metal oxides
5.3 Advanced electrolytes and solid-state technology
5.4 Design and simulation of high-performance cells
5.5 Simulation techniques for cell optimization
5.6 Optimization of energy performance and lifespan
5.7 Simulation of battery behavior
5.8 Integration of simulation into battery design
5.9 Implementation of simulation in real-world applications
5.40 Future trends in battery materials and simulation
6.4 Anode materials: titanium and graphene
6.2 Cathode materials: cobalt, nickel, and lithium
6.3 Next-generation electrolytes
6.4 Modeling battery behavior Battery
6.5 Battery Degradation Simulation
6.6 Battery Performance Optimization
6.7 Battery Safety Modeling
6.8 Battery Life Cycle Simulation
6.9 Battery Design for Different Applications
6.40 Trends in Battery Modeling and Optimization
7.4 Anode Materials: Silicon and Lithium Compounds
7.2 Cathode Materials: Fluoride and Sulfur Compounds
7.3 Solid-State Electrolytes and Ionic Liquids
7.4 3D Simulation and Modeling of Battery Cells
7.5 Cell Design for High Energy Density
7.6 Performance and Safety Optimization
7.7 Future Applications of High-Performance Batteries
7.8 Battery Design for Electric Vehicles
7.9 Battery Design for Energy Storage
7.40 Advances in Materials and Cell Design
8.4 Electrochemical Modeling of Batteries
8.2 Battery Cell Simulation with Different Materials
8.3 Analysis of Battery Behavior Battery
8.4 Battery Design Optimization
8.5 Battery Life Simulation
8.6 Thermal Modeling and Thermal Management
8.7 Battery Safety Simulation
8.8 Battery Design and Simulation for Different Applications
8.9 Experimental Validation of Simulation Models
8.40 Future Trends in Battery Modeling
5.5 Battery Development and Optimization: New Materials and Cell Performance
5.5 Fundamentals of Naval Engineering and Electric Propulsion Systems
5.3 Design and Material Selection for Naval Cells
5.4 Circuit Analysis and Charge/Discharge Control
5.5 Battery Integration on Naval Platforms
5.6 Safety and Thermal Management in Battery Systems
5.7 Cell Testing and Performance Evaluation
5.8 Design for Durability and Reliability in Marine Environments
5.9 Naval Industry Regulations and Standards
5.50 Case Studies: Real-World Battery Applications in the Naval Sector
5.5 Principles of Aerodynamics and Fluid Mechanics Applied to Rotors
5.5 3D Modeling and Design of Rotors for Energy Efficiency
5.3 Finite Element Analysis (FEA) for Rotor Evaluation
5.4 Rotor Shape Optimization: Theoretical and Practical Aspects Practical Exercises
5.5 Rotor Material Selection: Strength and Durability
5.6 Rotor Control System Design
5.7 Simulation and Performance Analysis of Rotors Under Different Conditions
5.8 Propulsion System Design for Marine Cells
5.9 Rotor Integration into the Overall Cell Design
5.50 Cost-Benefit and Life Cycle Analysis of Rotors
3.5 Introduction to Materials Science: Properties and Behavior
3.5 Electrode Material Research: Selection and Design
3.3 Study of Advanced Electrolytes for High-Performance Batteries
3.4 Separator Materials and Their Impact on Cell Performance
3.5 Nanomaterials and Their Application in Battery Improvement
3.6 Characterization and Analysis of Materials Using Advanced Techniques
3.7 Evaluation of the Chemical and Thermal Stability of Materials
3.8 Battery Design with Innovative Materials
3.9 Performance Testing and Battery Durability
3.50 Future Perspectives in Cell Materials Research
4.5 Fundamentals of Thermodynamics and Chemical Kinetics Applied to Batteries
4.5 Mathematical Modeling of Battery Cells: Equations and Simulation
4.3 Use of Simulation Software for Cell Design
4.4 Optimization of Cell Architecture for Improved Performance
4.5 Analysis of the Effects of Temperature on Cell Performance
4.6 Optimization of Charging and Discharging Processes
4.7 Design of Battery Management Systems (BMS)
4.8 Cell Failure and Reliability Analysis
4.9 Optimization Methodologies for Battery Design
4.50 Case Studies: Simulation and Optimization of Specific Batteries
5.5 Advanced Electrode Materials: Graphene, Silicon, and Others
5.5 New Electrolytes: Solid State and Others Types
5.3 Design of Cells with High Energy Density and Power
5.4 Advanced Cell Simulation: Tools and Methodologies
5.5 Optimizing Cell Performance: Key Factors
5.6 Integration of Innovative Battery Management Systems
5.7 Performance Testing and Durability Evaluation
5.8 Battery Design for Specific Applications
5.9 Cost-Benefit Analysis and Sustainability
5.50 Future Trends and Challenges in Battery Development
6.5 Cutting-Edge Materials for Electrodes and Electrolytes
6.5 Multiscale Modeling of Battery Cells
6.3 Simulating Cell Behavior Under Different Conditions
6.4 Optimizing Cell Design for Greater Efficiency
6.5 Analyzing the Effects of Aging on Cell Performance
6.6 Design of Advanced Battery Management Systems
6.7 Testing and Evaluating the Reliability of Batteries
6.8 Case Studies: Current Applications and Challenges
6.9 Strategies for Improving Performance and Durability
6.50 Future Perspectives in the Battery Field
7.5 Materials of the Future: Lithium-Air, Solid State, and Beyond
7.5 Designing Cells with High Energy Density and Durability
7.3 Optimizing Cell Design for Superior Performance
7.4 Designing Intelligent Battery Management Systems
7.5 Advanced Simulation for Performance Prediction
7.6 Assessing Battery Safety and Reliability
7.7 Battery Sustainability and Life Cycle
7.8 Case Studies: Innovations in the Battery Sector
7.9 Emerging Trends and Challenges in the Field
7.50 The Future of Batteries in the Marine Sector
8.5 Mathematical Modeling of Battery Cells: Equations and Simulation
8.5 Using Simulation Software for Cell Design
8.3 Applications of Innovative Materials in Cell Design
8.4 Cell Design Optimization: Key Aspects
8.5 Analysis of Cell Behavior Under Different Conditions
8.6 Battery Life and Performance Simulation
8.7 Battery Management System (BMS) Design
8.8 Battery Reliability Testing and Evaluation
8.9 Optimization for Specific Applications
8.50 Future Trends and Challenges in Cell Modeling
6.6 Development of new battery materials: exploration and analysis.
6.2 Cell performance optimization: strategies and evaluation.
6.3 Battery design: integration and packaging.
6.4 Battery life cycle analysis and sustainability.
6.5 Battery testing and validation: methods and results.
6.6 Battery simulation: tools and applications.
6.7 Thermal management in batteries: design and control.
6.8 Battery management systems (BMS): operation and control.
6.9 Battery failures: analysis and mitigation.
6.60 Future trends in batteries.
2.6 Rotor design principles: aerodynamics and structure.
2.2 Advanced rotor modeling: simulation and analysis.
2.3 Energy efficiency in rotor design.
2.4 Rotor material selection.
2.5 Design and analysis of rotor control systems. 2.6 Rotor Design Optimization: Software and Techniques
2.7 Rotor Vibration and Noise Analysis
2.8 Rotor Prototype Testing and Validation
2.9 Rotor Integration into Propulsion Systems
2.60 Advances in Rotor Technology
3.6 Electrode Material Research
3.2 Electrolyte Material Research
3.3 Material Characterization and Analysis
3.4 Design and Synthesis of New Materials
3.5 Application of Materials in Battery Design
3.6 Material Modeling and Simulation
3.7 Material Degradation Analysis
3.8 Material Performance Testing
3.9 Material Sustainability and Recycling
3.60 Future Trends in Battery Materials
4.6 Battery Cell Modeling: Simulation and Analysis 4.2 Simulation of Advanced Materials in Cells
4.3 Cell Design Optimization: Key Parameters
4.4 Cell Performance Simulation
4.5 Thermal Analysis of Cells: Simulation and Control
4.6 Cell Life Simulation
4.7 Simulation Tools: Software and Methodologies
4.8 Validation of Simulation Models
4.9 Case Studies: Simulation Applied to Cells
4.60 Future Trends in Cell Simulation
5.6 Advanced Materials for Batteries: Innovation
5.2 Cell Simulation: Modeling and Optimization
5.3 Battery Design and Analysis: Integration
5.4 Battery Performance: Improvement Strategies
5.5 Thermal Management in Batteries
5.6 Battery Management Systems (BMS): Control
5.7 Battery Life Cycle Simulation and Optimization 5.8 Testing and Validation of Innovative Batteries
5.9 Battery Sustainability and Recycling
5.60 Future Trends in Battery Innovation
6.6 Cutting-Edge Battery Materials: Analysis
6.2 Cell Modeling: Techniques and Applications
6.3 Battery Optimization: Design and Performance
6.4 Battery Analysis and Simulation
6.5 Thermal Management and Control in Batteries
6.6 Battery Management Systems (BMS)
6.7 Testing and Validation of Prototypes
6.8 Case Studies: Innovative Batteries
6.9 Sustainability and Life Cycle
6.60 The Future of Batteries
7.6 Materials of the Future: Analysis and Applications
7.2 Cell Optimization: Strategies
7.3 Battery Design: Integration
7.4 Battery Performance: Evaluation 7.5 Thermal Management and Battery Control
7.6 Battery Management Systems (BMS)
7.7 Sustainability and Recycling
7.8 Prototype Testing and Validation
7.9 Case Studies: Innovative Batteries
7.60 Future Trends in Batteries
8.6 Battery Modeling: Tools and Techniques
8.2 Innovative Materials: Simulation and Analysis
8.3 Cell Optimization: Design Strategies
8.4 Battery Performance Simulation
8.5 Battery Thermal Management and Analysis
8.6 Battery Management Systems (BMS)
8.7 Model Testing and Validation
8.8 Case Studies: Battery Optimization
8.9 Sustainability and Life Cycle
8.60 Future Trends
- 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?
Our team is ready to help you. Contact us, and we will respond as soon as possible.
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”).