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Diploma in Aerospace NDT (UT/RT/ET/MT/PT)

The Aerospace NDT Diploma (UT/RT/ET/MT/PT) offers specialized training in Non-Destructive Testing (NDT), with an emphasis on Ultrasonic Testing (UT), Radiography (RT), Eddy Current Testing (ET), Magnetic Testing (MT), and Liquid Penetrant Testing (PT) techniques applied to aerospace components. It focuses on defect detection and integrity assessment of materials and structures, covering metallic alloys and composite materials. The program includes hands-on laboratory sessions to familiarize participants with equipment and methodologies, ensuring compliance with international regulations and quality standards. The training provides the necessary skills to interpret results, apply inspection protocols, and generate accurate technical reports. It addresses the application of NDT in quality control, predictive maintenance, and failure analysis, which are crucial for aircraft safety and reliability. Participants prepare for roles such as NDT technicians, quality inspectors, inspection engineers, and NDT supervisors, fostering professional development in the aerospace industry.

Duration6–8 months
ModeHybrid
LanguageEnglish / Spanish
Start datesOctober / March
LocationEurope (Madrid)
AwardSEIUM Institute diploma
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Learning outcomes

What you will be able to do

01

In-depth Mastery of Aerospace Non-Destructive Testing: UT, RT, ET, MT, PT

02

Comprehensive Analysis of NDT Techniques for Aviation: Ultrasound, Radiography, Current, Particle, Penetration

03

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

04

Master's Degree in Aerospace Inspection: Proficiency in UT, RT, ET, MT, PT

05

Excellence in Aerospace NDT: Practical Application of UT, RT, ET, MT, PT

06

Optimization and Advanced Evaluation of Aeronautical Components with NDT: UT, RT, ET, MT, PT

07

Master's Degree in Aerospace Inspection: Proficiency in UT/RT/ET/MT/PT for Aviation Safety

08

Specialized Competence in Non-Destructive Testing for the Aerospace Industry: UT/RT/ET/MT/PT

Profile

Who it's for

  • Aerospace, Mechanical, Industrial, Automation Engineers, or related fields.
  • Professionals working in OEM rotorcraft/eVTOL, MRO, consulting firms, or technology centers.
  • Specialists in Flight Testing, certification, avionics, control, and dynamics interested in expanding their knowledge.
  • Regulators, authorities, and professionals in UAM/eVTOL seeking skills in compliance and regulations.
Recommended Requirements: Basic knowledge of aerodynamics, control systems, and structures. Proficiency in Spanish or English at level B2+ / C1. We offer support programs (bridging tracks) for those who require them.
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/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.
Syllabus

10 modules

  1. Module 1 — Introduction to Aerospace NDT (UT/RT/ET/MT/PT)
  2. 1.1Fundamental Principles of Non-Destructive Testing (NDT)
  3. 1.2Overview of UT, RT, ET, MT, and PT Techniques
  4. 1.3Specific Applications of NDT in the Aerospace Industry
  5. 1.4Advantages and Limitations of Each NDT Technique
  6. 1.5International Standards and Regulations for Aerospace NDT
  7. 1.6Safety and Environmental Considerations in NDT
  8. 1.7Selecting the Appropriate NDT Technique for Each Application
  9. 1.8Interpretation of Results and Acceptance/Rejection Criteria
  10. 1.9Introduction to Documentation and Reporting in NDT
  11. 1.10Introduction to Calibration and Verification of NDT Equipment
  12. Module 2 — In-depth Mastery of Aerospace Non-Destructive Testing: UT, RT, ET, MT, PT
  13. 2.1Theoretical Foundations of Ultrasound (UT)
  14. 2.2Advanced UT Applications and Techniques in Aerospace Components
  15. 2.3Theoretical Foundations of Radiography (RT)
  16. 2.4Advanced RT Applications and Techniques in Aerospace Components
  17. 2.5Theoretical Foundations of Eddy Current Testing (ET)
  18. 2.6Advanced ET Applications and Techniques in Aerospace Components
  19. 2.7Theoretical Foundations of Magnetic Particle Testing (MT)
  20. 2.8Advanced MT Applications and Techniques in Aerospace Components
  21. 2.9Theoretical Foundations of Liquid Penetrant Testing (PT)
  22. 2.10Advanced PT Applications and Techniques in Aerospace Components
  23. Module 3 — Comprehensive Analysis of NDT Techniques for Aviation: Ultrasound, Radiography, Eddy Current Testing, Particle Testing, Penetration Testing
  24. 3.1Integration of UT in Component Inspection Critical Components
  25. 3.2Integration of RT in the Inspection of Critical Components
  26. 3.3Integration of ET in the Inspection of Critical Components
  27. 3.4Integration of MT in the Inspection of Critical Components
  28. 3.5Integration of PT in the Inspection of Critical Components
  29. 3.6Comparative Analysis of NDT Techniques: Advantages and Disadvantages
  30. 3.7Strategic Selection of NDT Techniques for Specific Cases
  31. 3.8Combination of NDT Techniques for Comprehensive Inspection
  32. 3.9Interpretation of Combined Results and Decision Making
  33. 3.10Case Studies: Practical Applications in Aviation
  34. Module 4 — Expert Evaluation of Aerospace Components Using NDT: UT/RT/ET/MT/PT
  35. 4.1Evaluation of Welds Using UT and RT
  36. 4.2Evaluation of Composite Materials Using UT and RT
  37. 4.3Evaluation of Aluminum Structures Using ET
  38. 4.4Evaluation of Steel Components Using MT
  39. 4.5Surface and Coating Evaluation Using PT
  40. 4.6Failure Analysis and Root Cause Determination Using NDT
  41. 4.7Quality Control in Aerospace Manufacturing and Maintenance
  42. 4.8Structural Integrity Management Using NDT Data
  43. 4.9Design of Risk-Based Inspection Procedures
  44. 4.10Case Studies: Evaluation of Specific Components
  45. Module 5 — Master's in Aerospace Inspection: Mastery of UT, RT, ET, MT, PT
  46. 5.1Planning and Management of NDT Inspection Programs
  47. 5.2Design of Standardized Inspection Procedures
  48. 5.3Advanced Calibration and Verification of NDT Equipment
  49. 5.4Data Analysis and Quality Control in NDT
  50. 5.5Nonconformity Management and Corrective Actions
  51. 5.6Optimization of NDT Inspection Processes
  52. 5.7Applications of NDT in Maintenance Predictive
  53. 5.8Development of New NDT Techniques and Technologies
  54. 5.9NDT Certification and Accreditation Management
  55. 5.10Case Studies: Implementation of Inspection Programs
  56. Module 6 — Excellence in Aerospace NDT: Practical Application of UT, RT, ET, MT, PT
  57. 6.1Design of Detailed Inspection Procedures for UT
  58. 6.2Design of Detailed Inspection Procedures for RT
  59. 6.3Design of Detailed Inspection Procedures for ET
  60. 6.4Design of Detailed Inspection Procedures for MT
  61. 6.5Design of Detailed Inspection Procedures for PT
  62. 6.6Simulation and Modeling of NDT Inspections
  63. 6.7Application of Artificial Intelligence in NDT
  64. 6.8Integration of NDT Data with Maintenance Management Systems
  65. 6.9Development of New Inspection Techniques
  66. 6.10Case Studies: Cutting-Edge Applications in NDT
  67. Module 7 — Advanced Optimization and Evaluation of Aeronautical Components with NDT: UT, RT, ET, MT, PT
  68. 7.1Optimization of UT Procedures for Critical Components
  69. 7.2Optimization of RT Procedures for Critical Components
  70. 7.3Optimization of ET Procedures for Critical Components
  71. 7.4Optimization of MT Procedures for Critical Components
  72. 7.5Optimization of PT Procedures for Critical Components
  73. 7.6Advanced Data Analysis and Interpretation of Results
  74. 7.7Advanced Evaluation Techniques for Composite Materials
  75. 7.8Advanced Evaluation Techniques for Special Alloys
  76. 7.9Failure Analysis and Evaluation of Component Lifespan
  77. 7.10Case Studies: Optimization of Inspections on Specific Components
  78. Module 8 — Mastery of Aerospace Inspection: Mastery of UT/RT/ET/MT/PT for Safety Aviation
  79. 8.1Regulatory and Normative Framework for Aviation Safety
  80. 8.2Application of NDT in Regulatory Compliance
  81. 8.3Risk Management in Aerospace Inspection
  82. 8.4Failure Analysis and Operational Safety
  83. 8.5Importance of NDT Certification for Safety
  84. 8.6Implementation of a Safety Management System
  85. 8.7Audits and Assessments in NDT Inspection
  86. 8.8Continuous Improvement of Inspection Processes
  87. 8.9Analysis of Air Incidents and Accidents
  88. 8.10Case Studies: Impact of NDT on Aviation Safety
  1. 2.2Introduction to NDT Techniques: Fundamentals and Applications in Aviation
  2. 2.2Ultrasound (UT) in Aviation: Principles, Equipment, and Applications
  3. 2.3Radiography (RT) in Aviation: Fundamentals, Techniques, and Results Evaluation
  4. 2.4Eddy Current (ET) in Aviation: Principles, Applications, and Quality Control
  5. 2.5Magnetic Particle Testing (MT) in Aviation: Inspection of Ferromagnetic Components
  6. 2.6Liquid Penetrant Testing (PT) in Aviation: Detection of Surface Defects
  7. 2.7Selection of NDT Techniques: Criteria and Selection for Aeronautical Components
  8. 2.8Interpretation of Results and Regulations: Codes, Standards, and Reports
  9. 2.9Quality Control and Assurance in NDT: Procedures and Practices
  10. 2.20Case Studies: Application of NDT Techniques in Aircraft Inspection
  1. 3.3Fundamentals of Non-Destructive Testing (NDT) in Aerospace Components
  2. 3.2NDT Techniques: Ultrasonic Testing (UT) - Principles and Applications
  3. 3.3NDT Techniques: Radiography (RT) - Principles and Applications
  4. 3.4NDT Techniques: Eddy Current Testing (ET) - Principles and Applications
  5. 3.5NDT Techniques: Magnetic Particle Testing (MT) - Principles and Applications
  6. 3.6NDT Techniques: Liquid Penetrant Testing (PT) - Principles and Applications
  7. 3.7Interpretation of Results and Acceptance/Rejection Criteria
  8. 3.8Application of NDT in Different Aeronautical Components (Structures, Engines, etc.)
  9. 3.9International Standards and Regulations for NDT in the Aerospace Industry
  10. 3.30Quality Control and Quality Assurance in NDT
  11. 3.4
  1. 4.4Fundamentals of Non-Destructive Testing (NDT) in the Aerospace Industry
  2. 4.2Principles and Applications of Ultrasound (UT) in Aeronautical Components
  3. 4.3Industrial Radiography (RT) for the Inspection of Aerospace Structures
  4. 4.4Eddy Current (ET) Inspection Techniques in Aviation
  5. 4.5Magnetic Particle Testing (MT) for Defect Detection
  6. 4.6Liquid Penetrant Testing (PT) in the Aerospace Industry
  7. 4.7Selection and Application of NDT Methods Based on Material and Geometry
  8. 4.8Interpretation and Evaluation of NDT Results
  9. 4.9Quality Control and Standards in Aerospace NDT
  10. 4.40Case Studies and Failure Analysis of Aeronautical Components
  1. 5.5Introduction to Non-Destructive Testing (NDT) in Aviation: Definition and Scope
  2. 5.5Importance of NDT in Aeronautical Safety and Maintenance
  3. 5.3Advantages of NDT over Destructive Testing
  4. 5.4Types of NDT: Overview of UT, RT, ET, MT, PT
  5. 5.5Basic Regulations and Standards in Aeronautical NDT
  6. 5.6The Role of NDT in the Aircraft Lifecycle
  7. 5.7Introduction to Documentation and Records in NDT
  8. 5.8Professional Ethics and Safety in NDT Practice
  9. 5.5Theoretical Foundations of Ultrasound (UT): Wave Generation and Propagation
  10. 5.5​​Ultrasound Techniques: Pulse Echo, Transmission, Angle, Phased Array
  11. 5.3Theoretical Foundations of Radiography (RT): X-rays and Gamma Rays
  12. 5.4Radiography Techniques: Conventional, Digital, Computed Radiography
  13. 5.5Specific Applications of UT and RT in Components Aeronautical Components
  14. 5.6Advantages and Limitations of UT and RT
  15. 5.7Interpretation of Results and Detection of Indications
  16. 5.8Equipment and Software Used in UT and RT
  17. 3.5Theoretical Foundations of Eddy Current Testing (ET)
  18. 3.5Eddy Current Techniques: Coils, Frequency, Impedance
  19. 3.3Theoretical Foundations of Magnetic Particle Testing (MT)
  20. 3.4Magnetic Particle Techniques: Wet, Dry, Fluorescent
  21. 3.5Specific Applications of ET and MT in Aeronautical Components
  22. 3.6Advantages and Limitations of ET and MT
  23. 3.7Interpretation of Results and Detection of Indications
  24. 3.8Equipment and Safety Procedures in ET and MT
  25. 4.5Theoretical Foundations of Penetration Testing (PT)
  26. 4.5Penetration Techniques: Visible and Fluorescent Penetrants
  27. 4.3Sensitivity Analysis and Types of Penetrants
  28. 4.4Selection of the Appropriate Penetrant and Developer
  29. 4.5Specific Applications of PT in Components Aeronautical
  30. 4.6Advantages and limitations of PT
  31. 4.7Interpretation of results and detection of indications
  32. 4.8Cleaning and safety procedures in PT
  33. 5.5International standards applicable to NDT: ASTM, ASME, ISO
  34. 5.5Specific standards for NDT in the aerospace industry
  35. 5.3Certification and qualification requirements for NDT personnel
  36. 5.4Quality control procedures in NDT
  37. 5.5NDT documentation and records: reports, procedures
  38. 5.6Interpretation and application of regulations and standards
  39. 5.7Updates and revisions of regulations and standards
  40. 5.8Audits and compliance with standards in NDT
  41. 6.5Inspection of aircraft structures using UT
  42. 6.5Inspection of welds and joints using RT
  43. 6.3Detection of cracks and corrosion with ET
  44. 6.4Inspection of magnetic components with MT
  45. 6.5Detection of surface defects with PT
  46. 6.6Selection of the appropriate NDT technique for each Component
  47. 6.7Practical Cases and Case Studies
  48. 6.8Design of Specific Inspection Procedures
  49. 7.5The Role of NDT in Aviation Safety
  50. 7.5Evaluation of Aircraft Structural Integrity
  51. 7.3Early Detection of Defects and Failures
  52. 7.4Prevention of Aviation Accidents and Incidents
  53. 7.5The Impact of NDT on Risk Reduction
  54. 7.6Failure Analysis and Risk Management in NDT
  55. 7.7Importance of Training and Certification in Aviation Safety
  56. 7.8Aviation Safety and NDT Regulations
  57. 8.5The Quality Control Process in Aerospace NDT
  58. 8.5Calibration and Verification of NDT Equipment
  59. 8.3Traceability Management in NDT
  60. 8.4Nonconformity Management and Corrective Actions
  61. 8.5Quality Control Reports and Documentation
  62. 8.6Internal and External Audits in NDT
  63. 8.7Continuous Improvement in NDT Processes
  64. 8.8Future Trends in Quality Control in Aerospace NDT
  1. 6.6Fundamentals of Non-Destructive Testing (NDT): Principles and Applications
  2. 6.2Aerospace Standards: MIL, ASTM, ISO and their applications
  3. 6.3Selection of NDT Techniques: UT, RT, ET, MT, PT and their applicability
  4. 6.4Interpretation of Results: Detection and evaluation of discontinuities
  5. 6.5Documentation and Procedures: Preparation of NDT reports
  6. 6.6Standards and regulations: Compliance in the aerospace industry
  7. 6.7Introduction to equipment and materials: Use and calibration
  8. 6.8Quality control: Ensuring accuracy in NDT
  9. 6.9Case study: Application of NDT to aeronautical components
  10. 6.60Trends in NDT: Technological advances and future developments
  11. 2.6Aerospace engines: Critical components and inspection points
  12. 2.2Ultrasonic Testing (UT) in engines: Failure, cracks, and wear
  13. 2.3Radiography (RT) in Engines: Turbine and Blade Analysis
  14. 2.4Eddy Currents (ET) in Engines: Corrosion and Crack Detection
  15. 2.5Magnetic Particle Testing (MT) in Engines: Shaft and Bearing Inspection
  16. 2.6Penetration Testing (PT) in Engines: Surface Crack Detection
  17. 2.7Aircraft Structures: Panels, Fuselages, and Wings
  18. 2.8NDT in Structures: UT, RT, ET, MT, PT, and Their Applications
  19. 2.9Case Study: Inspection of an Engine and an Aircraft Structure
  20. 2.60Predictive Maintenance: NDT as a Key Tool
  21. 3.6Advanced Analysis of Aerospace Materials
  22. 3.2Advanced Ultrasound (UT): Phased Array and TOFD Techniques
  23. 3.3Advanced Radiography (RT): Computed Tomography and Digitization
  24. 3.4Advanced Eddy Currents (ET): Multi-Frequency Analysis
  25. 3.5Advanced Magnetic Particle Testing (MT): Fluorescence and Fields Remote
  26. 3.6Advanced Penetration Testing (PT): Enhanced Sensitivity Techniques
  27. 3.7Evaluation of Complex Components: Engines, Landing Gear
  28. 3.8Failure Analysis: Root Cause Determination
  29. 3.9Simulation and Modeling: Software Applications in NDT
  30. 3.60Development of Customized Inspection Programs
  31. 4.6Importance of Aviation Safety: Role of NDT
  32. 4.2Ultrasonic Testing (UT) in Safety: Critical Components
  33. 4.3Radiography (RT) in Safety: Detection of Internal Defects
  34. 4.4Eddy Current Testing (ET) in Safety: Corrosion Detection
  35. 4.5Magnetic Particle Testing (MT) in Safety: Landing Gear Inspection
  36. 4.6Penetration Testing (PT) in Safety: Detection of Cracks on Critical Surfaces
  37. 4.7Risk Management in Aviation Safety Inspection
  38. 4.8Regulatory Compliance: FAA, EASA, and Other Regulators
  39. 4.9Design of Inspection Plans for Aircraft
  40. 4.60Audits and Quality Control in Aviation Safety
  41. 5.6Optimizing Inspection Programs: Costs and Efficiency
  42. 5.2Selecting the Appropriate NDT Technique: Evaluation Criteria
  43. 5.3Ultrasound (UT) in Civil Aviation: Specific Applications and Optimization
  44. 5.4Radiography (RT) in Civil Aviation: Low-Risk Techniques and Optimization
  45. 5.5​​Eddy Current (ET) in Civil Aviation: Efficiency Analysis
  46. 5.6Magnetic Particle (MT) in Civil Aviation: Process Optimization
  47. 5.7Penetration Testing (PT) in Civil Aviation: Productivity Improvement
  48. 5.8NDT Data Analysis and Management Software
  49. 5.9Best Practices in NDT Optimization
  50. 5.60Implementing Continuous Improvement
  51. 6.6Practical Applications of Ultrasound (UT) in Aircraft: Field Inspection
  52. 6.2Practical Applications of Radiography (RT) in Aircraft: Component Analysis
  53. 6.3Practical Applications of Eddy Current (ET): Maintenance Inspection
  54. 6.4Practical Applications of Magnetic Particle Testing (MT): Inspection of Critical Parts
  55. 6.5Practical Applications of Penetration Testing (PT): Crack Detection in Structures
  56. 6.6Case Studies: Real-World Applications of NDT in Aviation
  57. 6.7Failure Analysis: Root Cause Identification
  58. 6.8Predictive Maintenance: NDT-Based Strategies
  59. 6.9Development of NDT Reports and Documentation
  60. 6.60Future Trends in Practical Applications of NDT
  61. 7.6NDT Data Collection and Preparation: Quality and Accuracy
  62. 7.2Analysis of Ultrasonic Testing (UT) Results
  63. 7.3Analysis of Radiographic Testing (RT) Results
  64. 7.4Analysis of Eddy Current Testing (ET) Results
  65. 7.5Analysis of Magnetic Particle Testing (MT) Results
  66. 7.6Analysis of Penetration Testing (PT) Results
  67. 7.7Report Writing: Structure and Content
  68. 7.8Interpretation of Results: Severity Assessment
  69. 7.9Analysis and Reporting Software
  70. 7.60Validation and verification of NDT results
  71. 8.6Introduction to quality control in NDT
  72. 8.2Calibration and verification of NDT equipment
  73. 8.3Certification and accreditation of NDT personnel
  74. 8.4Quality control in inspection processes
  75. 8.5Management of NDT data traceability
  76. 8.6Internal and external audits
  77. 8.7Certification standards and regulations
  78. 8.8Continuous quality improvement in NDT
  79. 8.9Preparation for certification exams
  80. 8.60Professional ethics and best practices in NDT
  81. 8.7Professional ethics and best practices in NDT
  1. 7.7Importance of NDT in the aerospace industry.
  2. 7.2Types of non-destructive testing (NDT) and their applications.
  3. 7.3Advantages of NDT over destructive testing.
  4. 7.4Basic safety principles in NDT.
  5. 7.7Introduction to aerospace regulations for NDT.
  6. 7.6The role of the NDT technician in aircraft maintenance.
  7. 7.7Introduction to NDT documentation and reports.
  8. 7.8Future trends in aerospace NDT.
  9. 2.7Physical principles of ultrasound (UT) and radiography (RT).
  10. 2.2Equipment and materials used in UT and RT.
  11. 2.3UT techniques: pulse-echo, transmission, phased array.
  12. 2.4RT techniques: conventional radiography, digital radiography, and computed tomography. 2.7 Sample preparation and equipment calibration in UT and RT.
  13. 2.6Interpretation of results: detection of discontinuities.
  14. 2.7Advantages and limitations of UT and RT in aerospace inspection.
  15. 2.8Practical examples of UT and RT applications on components.
  16. 3.7Physical principles of eddy currents (ET) and magnetic particles (MT).
  17. 3.2Equipment and materials used in ET and MT.
  18. 3.3ET techniques: search coils, transmission coils.
  19. 3.4MT techniques: magnetic fields, particle application.
  20. 3.7Sample preparation and equipment calibration in ET and MT.
  21. 3.6Interpretation of results: detection of discontinuities.
  22. 3.7Advantages and limitations of ET and MT in aerospace inspection.
  23. 3.8Practical examples of ET and MT applications on components.
  24. 4.7Physical Principles of Penetration Testing (PT)
  25. 4.2Equipment and Materials Used in PT
  26. 4.3PT Techniques: Penetrants, Developers
  27. 4.4Sample Preparation and Equipment Calibration in PT
  28. 4.7Interpretation of Results: Discontinuity Detection
  29. 4.6Advantages and Limitations of PT in Aerospace Inspection
  30. 4.7Failure Analysis and its Relationship to NDT Techniques
  31. 4.8Practical Examples of PT Applications on Components
  32. 7.7ASTM, ISO, and Other Relevant Standards for NDT in Aviation
  33. 7.2Aeronautical Certification Requirements and their Relationship to NDT
  34. 7.3Documentation and Records Required in Aerospace NDT
  35. 7.4Quality Control Procedures in NDT
  36. 7.7Interpretation and Application of Acceptance and Rejection Standards 7.6 Equipment calibration and verification management.
  37. 7.7Design and validation of test procedures.
  38. 7.8Audits and regulatory compliance in NDT.
  39. 6.7Fuselage component inspection: UT, RT, ET, MT, PT.
  40. 6.2Engine component inspection: UT, RT, ET, MT, PT.
  41. 6.3Wing and control surface inspection: UT, RT, ET, MT, PT.
  42. 6.4Landing gear inspection: UT, RT, ET, MT, PT.
  43. 6.7Hydraulic and pneumatic system component inspection: UT, RT, ET, MT, PT.
  44. 6.6Case studies: common failures and their detection with NDT.
  45. 6.7Selection of the appropriate NDT technique for each component.
  46. 6.8Evaluation of the remaining service life of components.
  47. 7.7Importance of aviation safety and the role of NDT.
  48. 7.2Risk analysis and mitigation through NDT.
  49. 7.3Evaluation of aircraft structural integrity.
  50. 7.4Inspection of safety-critical components.
  51. 7.7Detection of defects that may compromise safety.
  52. 7.6Quality control in safety inspections.
  53. 7.7Reporting of findings and corrective actions.
  54. 7.8The contribution of NDT to the prevention of aviation accidents.
  55. 8.7Planning and management of quality control programs in NDT.
  56. 8.2Selection and training of NDT personnel.
  57. 8.3Qualification and certification of personnel and procedures.
  58. 8.4Implementation of quality management systems (ISO 9007).
  59. 8.7Documentation and control of NDT records.
  60. 8.6Internal and external audits in aerospace NDT. 8.7 Continuous Improvement in NDT Processes
  61. 8.8Trends in Quality Control in Aerospace NDT
  1. 8.8International Standards and Regulations in NDT (ISO, ASTM, EN).
  2. 8.8Fundamental Principles of Non-Destructive Testing (NDT).
  3. 8.3Advantages and Limitations of Each NDT Method (UT, RT, ET, MT, PT).
  4. 8.4Selecting the Appropriate NDT Method Based on the Material and Application.
  5. 8.5Interpretation of Results and Acceptance/Rejection Criteria.
  6. 8.6Calibration and Verification of NDT Equipment.
  7. 8.7Safety in NDT Applications (Radiation, Chemicals, etc.).
  8. 8.8Documentation and Reporting of NDT Inspections.
  9. 8.8Quality Control in NDT Processes.
  10. 8.80Introduction to NDT Personnel Certification.
  1. 9.9Introduction to Non-Destructive Testing (NDT) in the Aerospace Industry
  2. 9.9Fundamental Principles of Ultrasound (UT) for Aerospace Applications
  3. 9.3Fundamentals of Radiography (RT) in Aerospace Inspection
  4. 9.4Eddy Current (ET) Techniques for Component Evaluation
  5. 9.5Magnetic Particle (MT) Inspection in Aviation
  6. 9.6Liquid Penetrant Testing (PT) in the Aerospace Industry
  7. 9.7Selection and Application of NDT Methods: UT, RT, ET, MT, PT
  8. 9.8Interpretation and Analysis of NDT Results
  9. 9.9Quality Control and Assurance in Aerospace NDT
  10. 9.90NDT Regulations and Standards in Aviation
  1. 9.1Fundamental Principles of Non-Destructive Testing (NDT) in the Aerospace Industry
  2. 9.2Selection of NDT Techniques: UT, RT, ET, MT, PT for Specific Components
  3. 9.3Integration of NDT Techniques into the Manufacturing and Maintenance Process
  4. 9.4Analysis of Results and Decision-Making Based on NDT
  5. 9.5Design of a Comprehensive Inspection Plan Using NDT
  6. 9.6Case Studies: Practical Application of NDT to Different Aerospace Components
  7. 9.7Industry Standards and Regulations for NDT in Aviation
  8. 9.8Validation and Verification of NDT Results
  9. 9.9Quality Control and Assurance of Structural Integrity
  10. 9.10Reporting and Documentation of NDT Results
  11. 9.10
Methodology, software & labs

How you'll learn

  • 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.
Accreditable laboratories(EN ISO/IEC 17025) with rotor bench, EMC/Lightning pre-compliance, HIL/SIL, vibrations/acoustics.
Evidence-oriented Master's Thesis:safety case, test plan, compliance dossier and operational limits.
Industry Mentored:teachers with experience in training, , eVTOL/UAM and flight test.
Flexible modality(hybrid/online), international cohorts and support from SEIUM Career Services.
Ethics and safety:safety-by-design approach, cyber-OT, DIH and compliance as pillars.
Career opportunities

Where this takes you

Aerospace Non-Destructive Testing (NDT) Inspector (UT/RT/ET/MT/PT)Aerospace Non-Destructive Testing Technician (UT, RT, ET, MT, PT)**Aerospace Non-Destructive Testing Inspector** (UT/RT/ET/MT/PT)Aerospace Non-Destructive Testing Technician (UT/RT/ET/MT/PT)**Aerospace Non-Destructive Testing Inspector** (UT/RT/ET/MT/PT)**Aerospace Non-Destructive Testing Inspector** (UT/RT/ET/MT/PT)
Admissions & scholarships

Requirements

  • 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.

Ready to start?

Send your application today. Our admissions team replies within 72 hours with your study plan and funding options.

Apply now Scholarships
FAQ

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”).

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