Advanced Ergonomics and Human Factors Engineering — eye-tracking, workload, and ISO 15005/15007 applied.
About us Advanced Ergonomics and Human Factors Engineering — eye-tracking, workload, and ISO 15005/15007 applied.
Advanced Ergonomics and Human Factors Engineering, integrating technologies such as eye-tracking and workload assessment methodologies, is essential in the development of cockpit interfaces for eVTOL aircraft and UAM systems. The rigorous application of international standards such as ISO 15005 and ISO 15007 enables the optimization of human-machine interaction under AFCS and FBW criteria, ensuring the mitigation of cognitive errors and the improvement of situational awareness in critical operations. Related technical areas include dynamics/control, certification, and fatigue analysis, where the integration of kinematic and physiological data facilitates ergonomic design aligned with advanced aerodynamic practices and operational safety.
Specialized laboratories are equipped with HIL and SIL systems for real-time simulation and biometric data acquisition, complemented by EMC testing and acoustic analysis to validate compliance with applicable international regulations and aviation certification guidelines such as EASA CS-27/CS-29 and FAA Part 27/29. This environment fosters the training of specialists in areas such as Human Factors Engineer, Safety Analyst, Systems Integrator, and Flight Data Analyst, contributing to technical excellence and innovation in advanced ergonomics for emerging aerial platforms.
Target keywords (natural in the text): eye-tracking, workload, ISO 15005, ISO 15007, human factors, advanced ergonomics, HIL simulation, CS-29 certification, FAA Part 27, operational safety.
Advanced Ergonomics and Human Factors Engineering — eye-tracking, workload, and ISO 15005/15007 applied.
- Format: Online
- Duration: 19 months
- Time: 1900 H
- Practices: Consult
- Language: ES / EN
- Credits: 60 ECTS
- Registration date: 15-05-2026
- Start date: 09-07-2026
- Available places: 5
390.000 $
Skills and results
What you will learn
1. **Master Advanced Ergonomics: Eye Tracking, Workload, and ISO Standards in Naval Environments**
- Analyze eye-tracking, workload, and naval ergonomics to optimize human–machine interfaces and reduce fatigue and errors in maritime operations.
- Design workstations and task flows in naval environments by integrating ISO standards (e.g., ISO 11064) and workload assessment tools such as NASA-TLX.
- Implement ISO standards for ergonomics, establish compliance criteria and audit processes, and validate improvements using eye-tracking and workload assessment.
2. **Optimizing Naval Safety: Applied Ergonomic Engineering Using Eye-Tracking, Workload Analysis, and ISO Standards**
- Analyze human–machine interaction in naval environments using eye-tracking to optimize ergonomics, workload, and fatigue.
- Design workstations, interfaces, and workflows on naval platforms by applying relevant ISO standards such as ISO 6385 and ISO 9241 to ensure safety, usability, and comfort.
- Implement a workload and safety management framework that integrates eye-tracking and audits based on ISO (e.g., ISO 10075, ISO 6385) to achieve compliance and continuous improvement.
3. Comprehensive user-centered design and validation (from modeling to manufacturing)
You will learn to integrate the entire product development process—from concept to final validation—using 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. **Excellence in Naval Ergonomics: Eye Tracking, Workload Management, and Compliance with ISO 15005/15007**
- Analyzing human–machine interaction in naval operations using eye-tracking to assess attention, workload, and visual fatigue.
- Designing bridge layouts and workflows on ships using naval ergonomics and load analysis to achieve compliance with ISO 15005/15007.
- Implement continuous assessment of physical and cognitive workload and ISO 15005/15007 compliance using eye-tracking and well-being metrics to reduce risks and improve performance.
5. **Exploring Naval Ergonomics: Eye-Tracking, Workload, and the ISO 15005/15007 Standards for Excellence**
- Analyze eye-tracking and crew workload at navigation stations (bridge, radar, charts, and displays) to identify high-demand areas, distractions, and opportunities for ergonomic improvement.
- Apply ISO 15005/15007 as a reference framework for interface design and cabin layout, evaluating usability, visibility, and accessibility to reduce errors and optimize operational safety.
- Develop interventions and best practices for training based on maritime ergonomics, integrating results from Eye-Tracking and Workload with criteria of excellence for maneuvering, navigation, and emergency response.
6. **Cutting-Edge Naval Ergonomics: Eye-Tracking, Workload, and ISO Standards for Optimal Human-Centered Design**
You will learn to integrate the entire product development process—from concept to final validation—using 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.
To whom is our:
Advanced Ergonomics and Human Factors Engineering — eye-tracking, workload, and ISO 15005/15007 applied.
- Engineers with degrees in fields such as Aerospace, Mechanical, Industrial, Automation, or related fields.
- Technical experts from OEMs specializing in rotary-wing aircraft and eVTOLs, as well as professionals from MRO, consulting, and staff from technology centers.
- Specialists in areas such as flight testing, aviation certification, avionics, control systems, and flight dynamics who wish to deepen their knowledge.
- Staff from regulatory bodies, aviation authorities, and professionals involved in Urban Air Mobility (UAM) and eVTOL, interested in acquiring specific skills in regulatory compliance.
Recommendations: A foundation in aerodynamics, control systems, and structures is recommended. Proficiency in Spanish or English at the B2+/C1 level is valued. Support courses (bridging tracks) are offered to address any gaps.
- Standards-driven curriculum: You will work with CS-27/CS-29, DO-160, DO-178C/DO-254, ARP4754A/ARP4761, and ADS-33E-PRF starting from the first module.
- Accredited laboratories (EN ISO/IEC 17025) with rotor test bench, EMC/Lightning pre-compliance, HIL/SIL, vibration/acoustics.
- Evidence-based Master’s Thesis: safety case, test plan, compliance dossier, and operational limits.
- Industry-led mentorship: faculty with experience in rotorcraft, tiltrotor, eVTOL/UAM, and flight testing.
- Flexible format (hybrid/online), international cohorts, and support from SEIUM Career Services.
- Ethics and safety: a focus on safety-by-design, cyber-OT, DIH, and compliance as pillars.
1.1 Introduction to Naval Ergonomics: Concepts, Scope, and Operational Benefits
1.2 Eye-Tracking: Fundamentals, Metrics, and Applications in Cockpits and Control Stations
1.3 Workload: Definition, Measurement, and Interpretation in Maritime Environments
1.4 Ergonomic Design Principles for Navigation and Control Interfaces
1.5 Methods for evaluating human-system interaction in naval environments
1.6 Environmental ergonomics on ships: lighting, noise, temperature, and comfort
1.7 Safety, fatigue, and performance: impacts of ergonomics on naval operations
1.8 Collection and analysis of eye-tracking and workload data: MBSE/PLM for change management
1.9 Relevant ISO standards for naval ergonomics and eye-tracking (ISO 15005/15007)
1.10 Case study: analysis of go/no-go decisions using a risk matrix
2.2 Introduction to Ergonomics in Naval Environments: Key Concepts, Scope, and Objectives of the Discipline
2.2 Human Factors and Safety on Ships, Bases, and Operational Stations
2.3 Eye-Tracking in Naval Ergonomics: Fundamentals, Tools, and Applied Metrics
2.4 Workload in Naval Operations: Assessment of Demands and Mitigation Strategies
2.5 Ergonomic assessment methods for naval environments: HTA, NASA-TLX, and adaptations
2.6 Relevant ISO standards for ergonomics in maritime environments: principles and applications
2.7 Human-Machine Interaction on Bridge Stations: interface and control design
2.8 Physical and Environmental Ergonomics on Ships: Posture, Lighting, Noise, and Temperature
2.9 Ergonomic Risk Management: Monitoring, Incident Reporting, and Continuous Improvement
2.20 Case Study: Analysis of a Navigation Station and Proposal for Ergonomic Improvements
3.3 Eye-tracking in naval ergonomics: fundamentals, sensors, and key metrics (fixations, gaze duration, scanpath) and applications in control stations
3.2 Workload in naval environments: visual and mental assessment using eye-tracking, NASA-TLX, and correlation with response times
3.3 ISO 35005/35007 in naval ergonomics: scope, design requirements, and validation for cockpits, displays, and controls
3.4 Command post design: visibility, reach, posture, and interface usability with eye-tracking evidence
3.5 Ergonomic validation: testing protocols using simulators and shipboard trials, collection and analysis of eye-tracking data
3.6 Screen layout and control systems: information organization, visual hierarchy, colors, and alerts based on eye-tracking
3.7 Data management and traceability: MBSE/PLM for recording ergonomic decisions, eye-tracking data, and design changes
3.8 Ergonomic risk management and technology maturity: TRL/CRL/SRL assessment and mitigation plans in naval projects
3.9 Compliance and certifications: naval certification processes, ISO compliance, and time-to-market
3.30 Case study: Go/no-go decision using a risk matrix for an ergonomic improvement in a naval system
4.4 Eye-Tracking in Naval Navigation: Attention, Vigilance, and Critical Control Points
4.2 Workload in Ship Operations: Measurement, Distribution, and Mitigation of Stress
4.3 ISO Compliance in Naval Ergonomics: ISO 45005/45007 and Design Guidelines
4.4 Ergonomics of control stations and cockpits: visibility, layout, and user interfaces
4.5 Integration of eye-tracking in naval simulators: validation of habits and performance
4.6 Methods for assessing workload and fatigue at sea: NASA-TLX, RPE, and physical workload metrics
4.7 Management of Ergonomic Changes: Traceability, MBSE/PLM, and Configuration Controls
4.8 Validation of Ergonomic Solutions in Real-World Environments: Usability and Safety Testing
4.9 Naval ISO Audits and Compliance: Verification Processes and Records
4.40 Case Study: Go/No-Go Decision Using a Risk Matrix for Ergonomics, Workload, and ISO Compliance
5.5 Introduction to Naval Ergonomics: Principles and Applications
5.5 Eye-Tracking: Fundamentals and Methodology in Naval Environments
5.3 Workload Assessment: Methods and Tools
5.4 ISO Standards: Overview and Relevance to Naval Ergonomics
5.5 Ergonomic Design in Control Stations and Cabins
5.6 Analysis and Redesign of Workstations: Case Study
5.7 Human Factors and Human-Machine Interface (HMI) Design
5.8 Application of Eye-Tracking in HMI Design
5.9 Compliance with ISO 55005 and 55007 Standards: Guidelines and Examples
5.50 Integration of Ergonomics into the Naval Design Life Cycle
6.6 Introduction to Naval Ergonomics: Principles and Applications
6.2 Fundamentals of Eye-Tracking: Methodology and Tools
6.3 Workload Analysis: Evaluation Methods and Techniques
6.4 User-Centered Design: Ergonomic Principles in Naval Environments
6.5 ISO Standards: 65005/65007 and Their Application in Naval Design
6.6 Design of Naval Workstations: Ergonomic Optimization
6.7 Efficiency and Safety Assessment: Eye-Tracking and Workload
6.8 Human Factors in the Design of Naval Consoles and Displays
6.9 Human-Machine Interface Design: Advanced Ergonomic Principles
6.60 Case Studies: Practical Application and Best Practices
7.7 Introduction to Naval Ergonomics: Fundamentals and Context
7.2 Eye-Tracking in Naval Environments: Methodology and Applications
7.3 Workload Analysis in Naval Design
7.4 Assessment of Cognitive and Physical Load
7.7 ISO Standards in Naval Ergonomics: ISO 77007 and 77007
7.6 Ergonomic Design of Control and Operation Stations
7.7 Human Factors and Safety in the Naval Environment
7.8 Implementation of Ergonomic Improvements: Case Studies
7.9 Optimization of Operational Efficiency through Ergonomics
7.70 Integration of Ergonomics into the Naval Design Cycle
8.8 Fundamentals of Eye-Tracking in Naval Environments
8.8 Methods for Assessing Workload
8.3 Application of ISO Standards in Naval Design
8.4 Ergonomic Analysis of Workstations on Ships
8.5 Design of Interfaces and Systems in the Naval Field
8.6 Eye-Tracking and Performance Analysis in Navigation
8.7 Workload Management and Risk Prevention
8.8 Case Studies: Application of Ergonomics in Different Types of Ships
8.8 Advanced Technologies and Tools for Ergonomic Analysis
8.80 Evaluation of Efficiency and Comfort in Naval Design
9.9 Introduction to Naval Ergonomics: Fundamentals and Objectives
9.9 Human-Centered Design: Principles and Applications in the Naval Environment
9.3 Introduction to Eye-Tracking: Methodology and Applications in Ergonomics
9.4 Physiology of Vision and Visual Perception in Naval Environments
9.5 Introduction to Workload: Concepts and Assessment
9.6 Human Factors in the Design of Naval Workstations
9.7 Task Analysis in the Naval Context: Methodology and Examples
9.8 Introduction to Relevant ISO Standards for Naval Ergonomics
9.9 Practical Application of Eye-Tracking: Case Studies in Naval Environments
9.90 Module Conclusion and Preparation for the Next Module
1. **Master Advanced Ergonomics: Eye-Tracking, Workload, and ISO Standards in Naval Environments**
1.1 Introduction to Ergonomic Analysis in Naval Environments
1.2 Fundamentals of Eye-Tracking in Ergonomic Research
1.3 Workload Metrics: Assessment and Analysis
1.4 ISO Standards Relevant to Naval Ergonomics (ISO 9241, ISO 10075)
1.5 Practical Application of Eye-Tracking in Command Post Design
1.6 Evaluation and Redesign of Workstations: Ergonomic Principles
1.7 Tools and Software for Workload Analysis
1.8 Human Interface Design in Naval Environments
1.9 Case Studies: Implementation of Ergonomics on Ships
1.10 Final Project: Ergonomic Analysis and Design of a Naval Workstation
2. **Optimizing Naval Safety: Applied Ergonomic Engineering with Eye-Tracking, Workload Analysis, and ISO Standards**
2.1 User-Centered Design: Applied Ergonomic Principles
2.2 Eye-Tracking for Attention and Performance Assessment
2.3 Workload Modeling and Simulation in Naval Environments
2.4 ISO Safety Standards: Application and Compliance
2.5 Ergonomic Risk Analysis and Mitigation
2.6 Control Room Design: Ergonomic Considerations
2.7 Stress and Fatigue Assessment in Naval Operations
2.8 Design of Warning and Control Systems: Human Factors
2.9 Implementation of Ergonomics Programs in Fleets
2.10 Final Project: Design of an Ergonomic Solution for an Operations Station
3. **Naval Ergonomics at Its Best: Eye-Tracking, Workload, and ISO Compliance for Efficiency**
3.1 Advanced Ergonomics Principles in Naval Design
3.2 Eye-Tracking: Advanced Techniques and Their Application
3.3 Workload Assessment: Methods and Tools
3.4 Compliance with ISO Standards in Naval Ergonomics
3.5 Control Console Design: Ergonomics and Efficiency
3.6 Task Analysis and Design of Operating Procedures
3.7 Workflow Optimization: An Ergonomic Approach
3.8 Human Factors in Decision-Making at Sea
3.9 Design of Work Environments: Lighting, Noise, and Temperature
3.10 Final Project: Ergonomic Evaluation and Improvement of a Naval System
4. **Excellence in Naval Ergonomics: Eye-Tracking, Workload Management, and Compliance with ISO 15005/15007**
4.1 Fundamentals of Advanced Ergonomics for Naval Excellence
4.2 Eye-Tracking: Data Analysis and Interpretation
4.3 Workload Management: Strategies and Tools
4.4 Compliance with ISO 15005 and 15007 Standards
4.5 Command Post Design: Practical Application
4.6 Ergonomic Evaluation and Redesign of Onboard Systems
4.7 Human Factors in Naval Accident Prevention
4.8 User Interface Design: Usability and Efficiency
4.9 Work Environment Design: Comfort and Safety
4.10 Final Project: Ergonomic Optimization of a Naval Environment
5. **Navigating Naval Ergonomics: Eye-Tracking, Workload, and ISO 15005/15007 Standards for Excellence**
5.1 Key Principles of Ergonomics in Navigation
5.2 Eye-Tracking: Specific Applications in the Naval Industry
5.3 In-Depth Analysis of Workload in Naval Tasks
5.4 Interpretation and Application of ISO 15005 and 15007 Standards
5.5 Ergonomic Design of Consoles and Operator Stations
5.6 Risk Assessment and Proposals for Ergonomic Improvements
5.7 Human Factors and Their Influence on Performance
5.8 User Interface (UI) Design for Naval Environments
5.9 Analysis and Improvement of Operational Efficiency Through Ergonomics
5.10 Final Project: Design of a Comprehensive Ergonomic Solution for a Ship
6. **Cutting-Edge Naval Ergonomic Engineering: Eye-Tracking, Workload, and ISO Standards for Optimal Human-Centered Design**
6.1 Introduction to Advanced Naval Ergonomic Engineering
6.2 Eye-Tracking: Methodologies and Complex Data Analysis
6.3 Workload Modeling and Simulation
6.4 Implementation of ISO Standards in Naval Design
6.5 Control System Design: Ergonomic Aspects
6.6 Evaluation of Human-Machine Interaction
6.7 Design of Intuitive and Efficient Interfaces
6.8 Optimization of Work Environments at Sea
6.9 Case Studies: Innovations in Naval Ergonomics
6.10 Final Project: Proposal for an Innovative Ergonomic Design
7. **Exploring Advanced Ergonomics: Eye-Tracking, Workload, and ISO Standards in Naval Design**
7.1 Human-Centered Design of Naval Environments
7.2 Eye-Tracking: Case Studies and Practical Applications
7.3 Detailed Analysis of Workload in Naval Environments
7.4 Application of ISO Standards in Design and Evaluation
7.5 Control Station Design: Ergonomics and Efficiency
7.6 Ergonomic Risk Assessment and Improvement Proposals
7.7 User Interface Design for Safe Navigation
7.8 Optimizing Comfort and Safety on Board
7.9 Case Studies: Innovation in Naval Ergonomics
7.10 Final Project: Design of an Ergonomically Optimal Naval System
8. **Advanced Naval Ergonomics: Eye-Tracking, Workload Analysis, and Application of ISO 15005/15007**
8.1 Fundamentals of Advanced Ergonomics and User-Centered Design
8.2 Eye-Tracking: Advanced Techniques and Applications in the Naval Industry
8.3 In-Depth Evaluation and Analysis of Workload
8.4 Application of ISO 15005 and 15007 Standards in Design
8.5 Ergonomic Design of Control and Operation Stations
8.6 Human-Machine Interaction (HMI) Design
8.7 Implementation of Ergonomic Improvements
8.8 Design of Work Environments for Safety and Comfort
8.9 Case Studies: Practical Applications in the Naval Field
8.10 Final Project: Design of an Ergonomic Naval System
- 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, DO-178C planning toolchains.
- SEIUM Laboratories: scale rotor test bench, vibration/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: Degree in Computer Engineering, Mathematics, Statistics, or related fields; practical experience in NLP and information retrieval systems is a plus.
- Documents: Updated resume, academic transcript, SOP/statement of purpose, examples of projects or code (optional).
- Process: application → technical evaluation of profile and experience → technical interview → review of case studies → final decision → enrollment.
- Fees:
- Lump-sum 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% fee 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 & Financial Aid”, and “Tuition & Financing” in the SEIUM mega-menu
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F. A. Q
Frequently Asked Questions
Yes, we have international certification.
Yes: experimental models, real-world data, applied simulations, professional environments, real-world case studies.
It is not required. We offer leveling tracks and mentoring
Absolutely. It covers electric propulsion, integration, and emerging regulations (SC-VTOL).
Recommended. There are also internal challenges and consortia.
Sí. Modalidad online/híbrida con laboratorios planificados y soporte de visados (ver “Visado & residencia”).