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CourseAutomotive & Motorsport Applications open

Course in Railway Accident Investigation

The Railway Accident Research Course provides specialized knowledge in the reconstruction of rail events, including root cause analysis and contributing factors. It focuses on the application of forensic methodologies, evidence collection and data analysis related to railway safety. Participants will learn how to use tools such as train simulation, signal analysis and accident modeling to determine responsibilities and prevent future incidents, considering regulations such as EN 16269 and CEN/TS 16359.

The course offers hands-on experience in accident scenario inspection, expert report interpretation and technical reporting. Issues will be addressed such as rail signaling, track maintenance, and train operation. This training prepares professionals for roles such as accident investigators, railway experts, security advisers and experts in risk management, improving safety and efficiency in the railway sector.

Keywords Objective (natural in the text): Accident investigation, railway safety, root cause analysis, event reconstruction, train simulation, technical reports, railway expertise.

Duration3 months
ModeOnline
Start datesSet by the faculty
AwardSEIUM Institute certificate
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Learning outcomes

What you will be able to do

01

Comprehensive Railway Accident Investigation: Analysis and Prevention

02

Rotor modeling and performance mastery: optimization and simulation

03

Comprehensive user-oriented design and validation (from modeling to manufacturing)

04

Unraveling Railway Accidents: Research, Analysis and Solutions

05

Railway accident investigation: evidence analysis and reconstruction of events

06

Railway accident investigation: methodology and practical applications

07

Railway accident analysis: expert techniques and solutions

08

Comprehensive analysis of rail accidents: research, evaluation and prevention

Profile

Who it's for

  • Railway accident investigation staff, including professionals from the Railway Accident Investigation Commission (CIAF) and similar agencies.
  • Railway engineers, with experience in design, operation and maintenance of railway systems.
  • Technicians and professionals involved in rail safety, such as inspectors, auditors and risk management personnel.
  • Professionals from railway operators, rolling stock manufacturers, and railway infrastructure companies wishing to improve their accident research skills.
  • Lawyers and legal experts in Railway Law and Civil Liability in Railway Accidents.
Standards & tools

What you'll work with

  • 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/Acoustic.
  • Evidence-oriented TFM: Safety Case, Test Plan, Compliance Dossier and Operating Limits.
  • Industry Mentored: Teachers with Rotorcraft, Tiltrotor, eVTOL/UAM and Flight Test.
  • Flexible mode (hybrid/online), international cohorts and support of SEIUM Career Services.
  • Ethics and security: Safety-by-design approach, Cyber-OT, DIH and compliance as pillars.
Syllabus

10 modules

  1. 1.1Legal and regulatory framework in the investigation of rail accidents
  2. 1.2Fundamental Principles of Rail Safety
  3. 1.3Introduction to accident research methodology
  4. 1.4Collection and preservation of evidence at the accident site
  5. 1.5Introduction to root cause analysis
  6. 1.6Security protocols and post-accident crisis management
  7. 1.7The role of investigative bodies and their responsibilities
  8. 1.8Types of rail accidents and their classification
  9. 1.9Glossary of technical terms related to railway research
  10. 1.10Ethics and confidentiality in accident investigation
  1. 2.2Rotor modeling fundamentals: key principles and concepts
  2. 2.2Computational fluid dynamics (CFD) applied to rotor modeling
  3. 2.3Finite elements (FEA) in the structural analysis of rotors
  4. 2.4Rotor aerodynamic modeling: actuator disc theory and blade element
  5. 2.5Rotor performance simulation: push, power and efficiency
  6. 2.6Rotor blade design: geometry, wing profiles and materials
  7. 2.7Stability analysis and control of rotor systems
  8. 2.8Rotor vibration modeling: causes, consequences and solutions
  9. 2.9Rotor design optimization: methods and tools
  10. 2.20Practical applications of rotor modeling in the shipbuilding industry
  1. 3.3Definition and Scope of Railway Accident Investigation
  2. 3.2Applicable legal and regulatory framework
  3. 3.3Types of rail accidents and their characteristics
  4. 3.4Principles of railway safety and its importance
  5. 3.5Introduction to research methodologies
  6. 3.6Collection and preservation of evidence
  7. 3.7First steps in the investigation: notification and initial response
  8. 3.8Ethics and responsibility in accident investigation
  9. 2.3Introduction to rotors: design and operation
  10. 2.2Rotor modeling fundamentals
  11. 2.3Finite Element Analysis (FEA) Applied to Rotors
  12. 2.4Rotor performance simulation: software and tools
  13. 2.5Factors affecting rotor performance
  14. 2.6Rotor design optimization
  15. 2.7Rotor dynamics analysis
  16. 2.8Validation and verification of rotor models
  17. 3.3Identification of root causes in rail accidents
  18. 3.2Analysis of human factors in accidents
  19. 3.3Technical and operational factors that contribute to accidents
  20. 3.4Consequences of rail accidents (human, economic, environmental)
  21. 3.5Risk mitigation and accident prevention strategies
  22. 3.6Implementation of Security Management Systems (SMS)
  23. 3.7Analysis of data and trends in railway accidents
  24. 3.8Case studies: Analysis of specific accidents and their lessons learned
  25. 4.3Deepening in data collection and analysis
  26. 4.2Interviews and Testimonials: Techniques and Analysis
  27. 4.3Analysis of the accident scene: reconstruction and evaluation
  28. 4.4Examination of rail control and signaling systems
  29. 4.5Analysis of train and communication records
  30. 4.6Evaluation of the railway infrastructure: roads, bridges, tunnels
  31. 4.7Modeling and simulation for accident investigation
  32. 4.8Preparation of research reports and recommendations
  33. 5.3Analysis of physical evidence: Train remains, damage to the track
  34. 5.2Flight data analysis (if applicable) and event logs
  35. 5.3Reconstruction of the sequence of events of the accident
  36. 5.4Using simulation tools and software for reconstruction
  37. 5.5Analysis of videos and photographs
  38. 5.6Evaluation of train speed and movement before the accident
  39. 5.7Determination of the probable cause of the accident
  40. 5.8Presentation of findings and conclusions
  41. 6.3Railway accident investigation methodologies (e.g., bow-tie, failure tree)
  42. 6.2Practical application of the methodology in real cases
  43. 6.3Design of research plans and project management
  44. 6.4Information collection and management
  45. 6.5Using Databases and Data Analysis Tools
  46. 6.6Preparation of research reports
  47. 6.7Communication of findings and recommendations
  48. 6.8Monitoring of the implementation of the recommendations
  49. 7.3Advanced data analysis and statistics techniques
  50. 7.2Risk analysis and safety assessment
  51. 7.3Simulation and modeling techniques for accident analysis
  52. 7.4Use of specialized software in accident investigation
  53. 7.5Advanced interview techniques and human behavior analysis
  54. 7.6Analysis of contributing factors and their interrelation
  55. 7.7Development of solutions and corrective measures
  56. 7.8Presentation and defense of the findings to experts and authorities
  57. 8.3Assessment of risks associated with rail operations
  58. 8.2Identification of preventive and corrective measures
  59. 8.3Design and implementation of a Security Management System (SMS)
  60. 8.4Security audits and performance evaluations
  61. 8.5Analysis of costs and benefits of security measures
  62. 8.6Development of training and awareness programs
  63. 8.7Monitoring and evaluation of the effectiveness of the measures implemented
  64. 8.8Continuous improvement of rail safety
  1. 4.4Research Methodology: Systematic Approach
  2. 4.2Data Collection: Sources and Techniques
  3. 4.3Root Cause Analysis: Identification of Contributing Factors
  4. 4.4Event reconstruction: timeline and diagrams
  5. 4.5Physical evidence: examination and evaluation
  6. 4.6Human Factors: Behavior Analysis
  7. 4.7Operational Factors: Procedures and Management
  8. 4.8Technical aspects: design and maintenance
  9. 4.9Reports and recommendations: Effective communication
  10. 4.40Prevention of future accidents: strategies and measures
  1. 5.5Definition and scope of accident investigation
  2. 5.5Applicable legal and regulatory framework
  3. 5.3Collection and preservation of evidence
  4. 5.4Interviews and Testimonials: Techniques and Analysis
  5. 5.5Analysis of data and contributing factors
  6. 5.6Research Report: Structure and Content
  7. 5.7Prevention of future accidents: recommendations and corrective actions
  8. 5.8Case studies: practical examples of research
  9. 5.9Research Methodologies: Fault Tree Analysis
  10. 5.50Rail safety management systems
  11. 5.5Principles of aerodynamics and rotor design
  12. 5.5Rotor modeling: simulation software and tools
  13. 5.3Rotor performance analysis: efficiency and stability
  14. 5.4Rotor design optimization: Noise and vibration reduction
  15. 5.5Materials and rotor manufacturing
  16. 5.6Rotor design factors: Selection and sizing
  17. 5.7Computational Fluid Dynamics (CFD) in rotor design
  18. 5.8Evaluation of rotor performance under different conditions
  19. 5.9Rotor model testing and validation
  20. 5.50Sensitivity analysis and design optimization
  21. 3.5Root causes of rail accidents: human, technical and organizational factors
  22. 3.5Risk and Hazard Analysis in the Railway System
  23. 3.3Consequences of accidents: human, economic and environmental impact
  24. 3.4Prevention Strategies: Improved Design and Operation Security
  25. 3.5Implementation of Security Management Systems (SMS)
  26. 3.6Risk management in the railway field
  27. 3.7Contributing factors to accidents: trend analysis
  28. 3.8Accident Investigation: Methods and Techniques
  29. 3.9The role of technology in accident prevention
  30. 3.50Analysis of case studies of relevant railway accidents
  31. 4.5Collection and management of post-accident information
  32. 4.5Data Analysis Techniques: Statistics and Predictive Models
  33. 4.3Analysis of contributing factors: design, maintenance, operation
  34. 4.4Simulations and reconstruction of events
  35. 4.5Safety assessment of rail systems
  36. 4.6Proposals for improvement: corrective and preventive measures
  37. 4.7Analysis of system interactions
  38. 4.8Data integration: analysis of multiple sources of information
  39. 4.9Fault analysis: information design and management
  40. 4.50Analysis Tools and Software: Practical Applications
  41. 5.5Identification, collection and protection of physical evidence
  42. 5.5Evidence Analysis: Expert Reports, Inspections and Tests
  43. 5.3Event reconstruction: event modeling and simulation
  44. 5.4Data interpretation and information analysis
  45. 5.5Record Analysis: Black Box and Operation Data
  46. 5.6Reconstruction of the sequence of events
  47. 5.7Analysis of human factors and their influence on accidents
  48. 5.8Evaluation of compliance with standards and standards
  49. 5.9Analysis of the root causes and their implications
  50. 5.50Preparation of reports and presentation of results
  51. 6.5Accident Investigation Methodology: Steps and Processes
  52. 6.5Root Cause Analysis Techniques: Fault Tree Analysis, Cause-effect
  53. 6.3Data collection and management: interviews, documents and evidence
  54. 6.4Analysis of the interaction between human, technical and organizational factors
  55. 6.5Practical applications of the methodology in real cases
  56. 6.6Use of computer tools in accident investigation
  57. 6.7Preparation of research reports: structure and presentation
  58. 6.8Implementation of recommendations and monitoring of corrective actions
  59. 6.9Risk analysis and safety assessment
  60. 6.50Case studies: Scenario and simulation analysis
  61. 7.5Advanced data analysis: specialized techniques and tools
  62. 7.5Information Evaluation: Models, Simulations and Statistical Analysis
  63. 7.3Failure Analysis: Methodologies and Procedures
  64. 7.4Safety Assessment: Risk Analysis and Safety Assessment
  65. 7.5Implementation of preventive measures: root cause analysis and solutions
  66. 7.6Human Factor Analysis: Human Error Understanding and Analysis
  67. 7.7Security Management System Analysis: Compliance and Effectiveness
  68. 7.8Design and Operation Analysis: Design Safety Assessment
  69. 7.9Analysis of the results: interpretation, presentation and conclusions
  70. 7.50Case studies: Application of techniques in real accidents
  71. 8.5Accident Investigation: Information Collection and Analysis
  72. 8.5Risk Assessment: Hazard Identification and Analysis
  73. 8.3Cause Analysis: Determination of Contributing Factors
  74. 8.4Accident prevention: development of preventive measures
  75. 8.5Assessment of the effectiveness of preventive measures
  76. 8.6Railway safety management: planning, organization and control
  77. 8.7Railway system safety analysis: failure and risk analysis
  78. 8.8Design and evaluation of security measures
  79. 8.9Implementation and monitoring of preventive measures
  80. 8.50Analysis of results and continuous improvement
  1. 6.6Railway legislation: rules and regulations
  2. 6.2Rail safety management systems
  3. 6.3Hazard identification and assessment
  4. 6.4Human factors in rail safety
  5. 6.5Signaling and control of rail traffic
  6. 6.6Infrastructure maintenance and security
  7. 6.7Accident prevention: strategies and techniques
  8. 6.8Audits and regulatory compliance
  9. 2.6Rotor Modeling Principles: Theory and Applications
  10. 2.2Rotor aerodynamic design and optimization
  11. 2.3Structural analysis of rotors
  12. 2.4Computational Fluid Dynamics (CFD) in rotor design
  13. 2.5Rotor performance simulation: software and tools
  14. 2.6Evaluation of noise and vibration in rotors
  15. 2.7Rotor design optimization for energy efficiency
  16. 2.8Advanced simulation and analysis methods
  17. 3.6Common causes of rail accidents
  18. 3.2Failure Analysis: Methodologies and Techniques
  19. 3.3Consequences of accidents: impact and evaluation
  20. 3.4Factors contributing to rail accidents
  21. 3.5Case Studies: Real Accident Analysis
  22. 3.6Risk mitigation strategies
  23. 3.7Evaluation of damage and reconstruction of events
  24. 3.8Legal aspects and responsibilities
  25. 4.6Accident Investigation Process: Key Stages
  26. 4.2Evidence collection and analysis: techniques and tools
  27. 4.3Root Cause Analysis: Methodology and Applications
  28. 4.4Human and organizational factors in accidents
  29. 4.5Data analysis and scenario reconstruction
  30. 4.6Preparation of research reports and recommendations
  31. 4.7Prevention of future accidents: implementation of measures
  32. 4.8Legal and regulatory aspects in accident investigation
  33. 5.6Evidence collection and preservation: techniques and protocols
  34. 5.2Accident data analysis: records and documentation
  35. 5.3Event reconstruction: methods and tools
  36. 5.4Analysis of images and videos in research
  37. 5.5Accident modeling and simulation
  38. 5.6Validation and verification of event reconstruction
  39. 5.7Presentation of evidence in reports and trials
  40. 5.8Use of advanced technologies in research
  41. 6.6Accident Investigation Methodology: Steps and Processes
  42. 6.2Research planning and organization
  43. 6.3Data collection and evidence
  44. 6.4Interviews and testimonials
  45. 6.5Data and evidence analysis
  46. 6.6Preparation of reports and recommendations
  47. 6.7Implementation of corrective measures
  48. 6.8Practical case studies
  49. 7.6Accident data analysis techniques
  50. 7.2Root Cause Analysis: Advanced Methods
  51. 7.3Risk analysis and safety assessment
  52. 7.4Analysis of human factors in accidents
  53. 7.5Accident modeling and simulation
  54. 7.6Use of specialized software in analysis
  55. 7.7Development of expert solutions
  56. 7.8Presentation of results and recommendations
  57. 8.6Hazard identification and risk assessment
  58. 8.2Vulnerability analysis and weaknesses
  59. 8.3Implementation of preventive measures
  60. 8.4Risk mitigation strategies
  61. 8.5Security monitoring and monitoring
  62. 8.6Assessment of the effectiveness of security measures
  63. 8.7Business continuity planning
  64. 8.8Case studies and best practices
  1. 7.7Initial Research Methodology in Railway Accidents
  2. 7.2Collection and analysis of preliminary information
  3. 7.3Identification of contributing factors
  4. 7.4Preparation of preliminary reports
  5. 7.7Legal and regulatory considerations
  6. 2.7Rotor Design Principles
  7. 2.2Aerodynamic and structural modeling of rotors
  8. 2.3Rotor performance simulation
  9. 2.4Rotor optimization for efficiency and stability
  10. 2.7Vibration and fatigue analysis in rotors
  11. 3.7Root causes of rail accidents (human error, mechanical failure, etc.)
  12. 3.2Analysis of accident consequences (injuries, property damage, interruptions)
  13. 3.3Mitigation and prevention strategies
  14. 3.4Implementation of security and control measures
  15. 3.7Case studies and lessons learned
  16. 4.7Accident data collection and analysis
  17. 4.2Failure and Root Cause Analysis Techniques
  18. 4.3Identification of key factors in rail accidents
  19. 4.4Development of solutions and recommendations
  20. 4.7Implementation and monitoring of improvements
  21. 7.7Collection and management of physical and digital evidence
  22. 7.2Analysis of recordings and records
  23. 7.3Reconstruction of the sequence of events of the accident
  24. 7.4Analysis of the information and presentation of conclusions
  25. 7.7Data visualization and representation techniques
  26. 6.7Introduction to the Railway Accident Investigation Methodology
  27. 6.2Application of the methodology in real scenarios
  28. 6.3Data collection and analysis in research
  29. 6.4Preparation of reports and recommendations
  30. 6.7Case studies and case studies
  31. 7.7Advanced Railway Accident Analysis Techniques
  32. 7.2Human Factor Analysis
  33. 7.3Analysis of technical and operational failures
  34. 7.4Software application and specialized tools
  35. 7.7Design of solutions and corrective measures
  36. 8.7Risk assessment in the railway operation
  37. 8.2Identification of risk factors and vulnerabilities
  38. 8.3Implementation of prevention and mitigation measures
  39. 8.4Assessment of the effectiveness of security measures
  40. 8.7Security management and continuous improvement
  1. 8.8Legal and regulatory framework in railway research
  2. 8.8Research roles and responsibilities
  3. 8.3Collection and management of initial information
  4. 8.4Preservation and protection of the accident scene
  5. 8.5Documentation and reporting of preliminary findings
  6. 8.6Applicable rail safety regulations
  7. 8.8Introduction to Rotor Aerodynamics
  8. 8.8Rotor modeling: concepts and tools
  9. 8.3Rotor Performance Analysis: Key Parameters
  10. 8.4Simulation of flows and forces in rotors
  11. 8.5Rotor design optimization
  12. 8.6Rotor case study and performance
  13. 3.8Human factors in rail accidents
  14. 3.8Mechanical and structural failures
  15. 3.3Operating and signaling errors
  16. 3.4Direct and indirect consequences of accidents
  17. 3.5Root Cause Analysis
  18. 3.6Preparation of security reports and recommendations
  19. 4.8Phases of the Railway Accident Investigation
  20. 4.8Collection and analysis of physical evidence
  21. 4.3Analysis of black box data and registration systems
  22. 4.4Witness interviews and testimonial analysis
  23. 4.5Reconstruction of the sequence of events
  24. 4.6Implementation of corrective and preventive solutions
  25. 5.8Types of evidence in rail accidents
  26. 5.8Physical evidence analysis techniques
  27. 5.3Interpretation of data from registration systems
  28. 5.4Reconstruction of the dynamics of the accident
  29. 5.5Preparation of reports and conclusions based on evidence
  30. 5.6Presentation and defense of findings
  31. 6.8Railway accident research methodologies
  32. 6.8Research design and planning
  33. 6.3Data collection and analysis
  34. 6.4Application of research tools and techniques
  35. 6.5Preparation of reports and recommendations
  36. 6.6Case studies and application studies
  37. 7.8Advanced Cause Analysis Techniques
  38. 7.8Risk analysis and contributing factors
  39. 7.3Use of specialized software and tools
  40. 7.4Statistical data analysis and trends
  41. 7.5Preparation of technical reports and recommendations
  42. 7.6Assessment of the effectiveness of corrective measures
  43. 8.8Risk assessment in the rail system
  44. 8.8Hazard identification and risk analysis
  45. 8.3Design and implementation of prevention measures
  46. 8.4Risk mitigation strategies
  47. 8.5Cost-benefit analysis of security measures
  48. 8.6Emergency response plans
  49. 8.7Monitoring and evaluation of the effectiveness of the measures
  50. 8.8Continuous improvement of rail safety
  1. 9.9Legal and regulatory framework of railway research
  2. 9.9Principles of Rail Safety and Risk Management
  3. 9.3Key Terminology and Definitions in Accident Investigation
  4. 9.4Types of rail accidents and their classification
  5. 9.5The role of the researcher and his responsibilities
  6. 9.6Initial action protocols at the accident site
  7. 9.7Data Collection and Evidence: Basic Methodology
  8. 9.8Introduction to research tools and techniques
  9. 9.9Fundamentals of Rotor Aerodynamics
  10. 9.9Rotor Mathematical Modeling: Theory and Equations
  11. 9.3Rotor numerical simulation: software and applications
  12. 9.4Rotor Performance Analysis: Key Variables
  13. 9.5Rotor design optimization: strategies and tools
  14. 9.6Introduction to wind tunnel and flight tests
  15. 9.7Design considerations for different types of rotors
  16. 9.8Case Study: Practical Applications of Rotor Modeling
  17. 3.9Human factors in rail accidents: errors and biases
  18. 3.9Technical and mechanical failures: identification and analysis
  19. 3.3Environmental factors and adverse weather conditions
  20. 3.4Operational Causes: Procedures and Protocols
  21. 3.5Root Cause Analysis: Methodologies and Tools
  22. 3.6Accident prevention strategies: plans and actions
  23. 3.7Case studies: Analysis of real accidents and their causes
  24. 3.8Implementation of Security Improvements: Lessons Learned
  25. 4.9Accident Investigation Process: Stages and Phases
  26. 4.9Information Collection: Documentation and Relevant Data
  27. 4.3Interviews with witnesses and affected: techniques and strategies
  28. 4.4Analysis of the accident scene: inspection and evaluation
  29. 4.5Event reconstruction: timeline and sequence of events
  30. 4.6Identification of failures: direct and indirect causes
  31. 4.7Preparation of research reports: structure and content
  32. 4.8Recommendations and corrective actions: Implementation and monitoring
  33. 5.9Collection and preservation of physical evidence
  34. 5.9Analysis of the remains and railway components: Techniques
  35. 5.3Examination of records and documentation: comprehensive review
  36. 5.4Black box data analysis and recording systems
  37. 5.5Reconstruction of the accident sequence: simulation and modeling
  38. 5.6Interpretation of evidence: conclusions and findings
  39. 5.7Use of forensic tools: practical applications
  40. 5.8Preparation of evidence-based reports: Presentation of results
  41. 6.9Accident Research Methodologies: Overview
  42. 6.9Application of the Root Cause Analysis Methodology (ACR)
  43. 6.3Using Fault Tree Analysis (AAF) and Event Tree (AAE)
  44. 6.4Risk Analysis Techniques: HAZOP, FMEA
  45. 6.5Case studies: Application of methodologies
  46. 6.6Integration of research with security management
  47. 6.7Design of accident investigation training programs
  48. 6.8Continuous safety improvement: indicators and monitoring
  49. 7.9Statistical analysis of rail accidents
  50. 7.9Reliability and availability analysis techniques
  51. 7.3Risk modeling and scenario simulation
  52. 7.4Use of specialized software in accident investigation
  53. 7.5Railway traffic data analysis: trends and patterns
  54. 7.6Application of artificial intelligence in research
  55. 7.7Development of solutions based on data analysis
  56. 7.8Technical reporting: effective communication
  57. 8.9Risk assessment in the rail system
  58. 8.9Hazard identification and vulnerability analysis
  59. 8.3Implementation of preventive and corrective measures
  60. 8.4Design of contingency plans and emergency response
  61. 8.5Security Management: Standards and Standards
  62. 8.6Security audits: evaluation and continuous improvement
  63. 8.7Design of accident prevention programs
  64. 8.8Assessment of the impact of safety improvements
  65. 9.9Analysis of deep causes and contributing factors
  66. 9.9Application of data-driven solutions and evidence
  67. 9.3Design and implementation of security improvements
  68. 9.4Development of effective security recommendations
  69. 9.5Complex Case Study: Detailed Analysis
  70. 9.6Assessment of the impact of corrective actions
  71. 9.7Communication and presentation of results: reports
  72. 9.8Collaboration with experts and authorities
  73. 9.9Development of security policies and procedures
  74. 9.90Continuous improvement: monitoring and evaluation
  1. 1. Introduction to rotor modeling and rail analysis
  2. 2. Rotor Modeling Basics: Theory and Applications
  3. 3. Rotor performance analysis: simulation and optimization
  4. 4. Railway accident research methodology
  5. 5. Analysis of causes and consequences in rail accidents
  6. 6. Modeling and simulation of rail accident scenarios
  7. 7. Advanced Research and Rail Analysis Techniques
  8. 8. Integration of rotor modeling in the prevention of rail accidents
  9. 9. Case studies: Application of modeling and analysis in real accidents
  10. 10. Final Project: Rotor modeling and analysis of a railway case
Methodology, software & labs

How you'll learn

  • Hands-on methodology: Test-before-you-trust, Design Reviews, Failure Analysis, Compliance Evidence.
  • Software (according to licenses/partners): MATLAB/Simulink, Python (numpy/scipy), OpenVSP, SU2/OpenFOAM, Nastran/Abaqus, AMESim/Modelica, acoustic tools, DO-178C planning toolchains.
  • SEIUM Laboratories: Scale Rotor Bank, Vibrations/Acoustics, EMC/Lightning Pre-Compliance, HIL/SIL for AFCS, Data Acquisition with Strain Gauging.
  • Standards and Compliance: EN 9100, 17025, ISO 27001, GDPR.
Laboratorios acreditables(EN ISO/IEC 17025) with Rotor bench, EMC/Lightning Pre-Compliance, HIL/SIL, Vibrations/Acoustics.
TFM orientado a evidencia:Safety case, PLAN TEST, Compliance Dossier And operating limits.
Mentorado por industria:Faculty with experience in THE FORMATION, , EVTOL/UAM and flight test.
Modalidad flexible(hybrid/online), International cohorts And support of SEIUM Career Services.
Ethics and security:Focus safety-by-design, cyber-OT, i said and fulfillment as pillars.
Career opportunities

Where this takes you

Investigador de accidentes ferroviarios (Seguridad Ferroviaria, Análisis de Causas Raíz)Investigador de accidentes ferroviarios (Seguridad Ferroviaria, Análisis de Causas Raíz)Investigador de accidentes ferroviarios (Seguridad Ferroviaria, Análisis de Causas Raíz)Investigador de accidentes ferroviarios (Seguridad Ferroviaria, Análisis de Causas Raíz, Legislación Ferroviaria)**Investigador de Accidentes Ferroviarios** (Seguridad Ferroviaria, Análisis de Causas, Normativa Ferroviaria)**Investigador de Accidentes Ferroviarios** (Seguridad Ferroviaria, Análisis de Causas, Normativa Ferroviaria)
Admissions & scholarships

Requirements

  • Profile: Training in Computer Engineering, Mathematics, Statistics or Related Fields; Practical experience in NLP and valued information retrieval systems.
  • Documentation: Updated CV, Academic Record, SOP/purpose Test, Examples of Projects or Code (optional).
  • Process: Application → Technical Evaluation of profile and experience → Technical Interview → Review of Practical Cases → Final Decision → Registration.
  • RATES:
    • Single Payment: 10% Discount.
    • Payment in 3 Installments: No Commissions; 30% to registration + 2 equal monthly payments of the maintenance 35%.
    • Monthly Payment: Available with Commission of 7% of the total; Annual Review.
  • Scholarships: for academic merit, economic situation and promotion of inclusion; agreements with companies in the sector for partial or total scholarships.
Consultation “Calendar & Calls”, “Scholarships & Grants” Y “Rates & Financing” In the mega-menu SEIUM

Ready to start?

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FAQ

Frequently asked questions

Yes, we have international certification

Yes: Experimental models, Real data, Applied simulations, Professional environments, REAL STUDY CASE.

It is not mandatory. We offer Leveling tracks And tutoring

Totally. IT Covers e-Propulsion, Integration and Emerging Regulations (SC-VTOL).

RECOMMENDED. There's also Internal Challenges and Consortiums.

Yes. Modality Online/Hybrid with Planned Laboratories and Visa Support (see “Visa & Residence”).

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Online course of 300 hours in digital twins in motorsport. 6 modules covering the digital twin concept, data acquisition and management, physical vehicle modelling, data-driven models…

3 monthsOnlineAutomotive & Motorsport
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Slicks vs. tire course rain

Online course of 300 hours in slick versus rain tyres. 6 modules covering racing tyre physics, slick construction and behaviour, rain and intermediate tyres, crossover point…

3 monthsOnlineAutomotive & Motorsport
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SEIUM – Institute of Advanced Engineering
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