Next-Generation HMI/UX Engineering
About us Next-Generation HMI/UX Engineering
Next-generation HMI/UX engineering focuses on the design and validation of human-machine interfaces for advanced aeronautical systems, integrating principles of cognitive ergonomics, tactile interaction, and predictive modeling methodologies into eVTOL and UAM platforms. This discipline addresses the synergy between AFCS, FBW, and adaptive algorithms to optimize the user experience in digital cockpits, relying on CFD simulations and usability analyses that take into account certification regulations for cockpits and onboard systems.
Specialized laboratories offer HIL and SIL capabilities for data acquisition testing, EMC analysis, and crash simulations in accordance with DO-178C, DO-254, and standards based on ARP4754A and ARP4761, ensuring traceability and functional safety. Alignment with applicable international regulations is essential for roles such as Systems Engineer, HMI Integration Specialist, Functional Safety Analyst, and UX Designer in state-of-the-art aerospace environments.
Target keywords (natural in the text): HMI/UX Engineering, eVTOL, UAM, AFCS, FBW, DO-178C, ARP4754A, aeronautical user experience.
Next-Generation HMI/UX Engineering
- 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: 12
391.000 $
Skills and results
What you will learn
1. Naval UX/HMI Design: Master the Interface Engineering of the Future
- Analyze human factors and operational safety of naval UX/HMI under extreme environmental conditions: ergonomics, fatigue, visibility, and noise.
- Design interfaces and controls for ships and platforms, with a focus on usability and reliability, using rapid prototyping, user testing, and simulators.
- Conducting usability evaluations and accessibility assessments of naval UX/HMI, incorporating standards, validation using simulators, and maintainability strategies.
2. Design and Optimization of Marine Rotors: Modeling and Performance
- Analyze flap–lag–torsion, whirl flutter, and fatigue interactions.
- Design composite laminates, joints, and bonded joints using FEM.
- Implement damage tolerance and NDT (UT/RT/thermography).
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. Naval UX/HMI Engineering: Design and Optimization for the Next Generation
- Analyze the user experience in UX/HMI for naval applications, with a focus on situational awareness, ergonomics, and operational safety.
- Design and prototype HMI interfaces for command posts and mission platforms, integrating real-time data, AR/VR, and user validation.
- Evaluate the usability, reliability, and performance of interactions, applying heuristics, user testing, and compliance with naval regulations.
5. Naval UX/HMI Design: A Revolution in Interface Engineering
- Analyze naval UX/HMI: cockpit ergonomics, display readability, and interaction safety under conditions of seasickness, vibration, and noise.
- Design and size dashboards and screens in command stations, using visual hierarchy, color coding, and consistent interaction to reduce decision times.
- Validate and deploy interfaces through usability testing in simulators and with crews, applying usability and operational safety in accordance with ISO/IEC standards and user-centered design guidelines.
6. Naval UX/HMI Design: Cutting-Edge User Interface Engineering
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:
Next-Generation HMI/UX Engineering
- Engineers with degrees in Aerospace Engineering, Mechanical Engineering, Industrial Engineering, Automation Engineering, or similar disciplines.
- Professionals working in roles at rotorcraft/eVTOL OEMs, MRO companies, consulting firms, or technology research centers.
- Specialists in areas such as Flight Test, certification, avionics, flight control, and flight dynamics who are looking to expand their knowledge.
- Staff from regulatory bodies/authorities and experts in the field of Urban Air Mobility (UAM) / eVTOL who need to strengthen their skills in compliance.
Suggested requirements: Prior knowledge of aerodynamics, control, and structures. A language proficiency level of Spanish/English B2+/C1 is recommended. We offer bridging tracks to address any potential 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 Fundamentals of Naval UX/HMI: user-centered design principles applied to navigation and command operations in maritime environments
1.2 Ergonomics and workload in the bridge: control layout, reach, visibility, and fatigue
1.3 Naval HMI architectures: display levels, physical panels vs. screens, distributed interfaces, and redundancy
1.4 Real-time data visualization: navigation monitoring, critical systems, and alert hierarchy
1.5 Interaction models and task flows for routine operations and emergency scenarios
1.6 Design for maintenance and modularity: modular swaps, integrated diagnostics, and ease of upgrade
1.7 MBSE/PLM integration for change management and requirements traceability
1.8 Security and compliance: standards, certifications, and cybersecurity in Naval HMI
1.9 UX/HMI validation and verification: usability testing, simulators, and test environments
1.10 Case study: go/no-go decision using a risk matrix for a Naval UX/HMI solution
2.2 **Design Principles of Naval Propellers: Geometry, Pitch, and Thrust**
2.2 **Hydrodynamic modeling of propellers: potential theory and basic CFD**
2.3 **Cavitation and operating limits: analysis and mitigation in marine propellers**
2.4 **Propeller-hull interaction: effects of speed and the hydrodynamic environment**
2.5 **Performance optimization: efficiency, thrust, and energy consumption**
2.6 **Materials and manufacturing of marine propellers: alloys, surface treatments, and tolerances**
2.7 **Testing and validation: test bench, wind tunnel, and shipboard trials**
2.8 **Instrumentation and monitoring: vibration, pressure, and performance data sensors**
2.9 **Regulations and certifications: classification (ABS, DNV-GL) and safety standards**
2.20 **Case study: design and simulation of a marine propeller for a high-performance vessel**
Module 3 — Introduction to Naval Interface Design
3.3 Context and Evolution of Naval UX/HMI
3.2 User-Centered Design Principles for Marine Environments
3.3 Naval Interface Architectures: UI/HMI Layers and Systems Integration
3.4 Safety, Reliability, and Resilience to Human Error
3.5 Ergonomics and Operating Environment: Readability, Lighting, and Screen Layout
3.6 Relevant Standards and Certifications (ISO/MIL-STD 3472G, ISO 9243, etc.)
3.7 User research methods for ships: interviews, observation, usage logs
3.8 Rapid prototyping for HMIs: wireframes, mockups, and simulations
3.9 Usability evaluation and testing in simulators and real-world scenarios
3.30 MBSE and requirements traceability for naval HMIs and change management
4.4 Design of Naval Control Displays: Readability, Contrast, and Ergonomics
4.2 HMI Interactions on the Open Sea: Tactile Response, Gestures, and Feedback
4.3 Sensor Integration and Data Fusion in Naval HMIs: A Unified View for Navigation, Surveillance, and Combat
4.4 Design for maintainability and modular UI and hardware swaps
4.5 Life cycle analysis (LCA/LCC) of naval interfaces: footprint, cost, and maintenance
4.6 Mission operations: HMI integration with mission systems and simulators
4.7 Data and Digital Thread: MBSE/PLM for interface change control
4.8 Technological risk and readiness: TRL/CRL/SRL for naval HMIs
4.9 Intellectual property, certifications, and time-to-market for naval HMIs
4.40 Case study: go/no-go decision using a risk matrix for naval UX/HMI implementation
5.5 Introduction to Naval UX/HMI Design
5.5 Fundamentals of Interface Engineering
5.3 Principles of User-Centered Design (UCD)
5.4 Key Elements of Human-Machine Interaction (HMI)
5.5 Evolution of User Experience (UX) in the Naval Field
5.6 Importance of UX/HMI Design for Safety and Efficiency
5.7 Current Landscape and Trends in Naval Interface Design
5.8 Essential Tools and Software for UX/HMI Design
5.9 Agile Methodologies and Their Application in Naval Interface Development
5.50 Case Studies: Examples of Successful UX/HMI Design in the Naval Industry
Module 1 — Naval UX/HMI: Interface Design6.6 Principles of Naval UX/HMI Design: Fundamentals and Applications
6.2 Naval Interface Architecture: Structure and Organization
6.3 User-Centered Design in Naval Environments
6.4 UX/HMI Methodologies: Research and Evaluation
6.5 Prototyping and Usability Testing in Marine Environments
6.6 Interface Design for Different Roles and Tasks on the Ship
6.7 Standards and Regulations in Naval UX/HMI Design
6.8 Trends in Naval Interface Design: Augmented and Virtual Reality
6.9 Tools and Technologies for Naval UX/HMI Design
6.60 Case Studies: Examples of Successful Design in the Naval Industry
7.7 Introduction to Naval UX/HMI Design
7.2 Fundamental Principles of Interface Engineering
7.3 The Importance of User Experience (UX) in the Naval Environment
7.4 Introduction to Human-Machine Interfaces (HMI)
7.7 The UX/HMI Design Cycle: Research, Design, Prototyping, Testing
7.6 Tools and Technologies for Naval UX/HMI Design
7.7 Case Study Analysis: Existing Naval Interfaces
7.8 Regulations and Standards in Naval UX/HMI Design
7.9 Future Trends in Naval Interface Design
7.70 Project: Initial Sketches and Prototypes of a Naval Interface
8.8 Principles of Cutting-Edge Naval Interface Design
8.8 User Research and Analysis in the Naval Environment
8.3 Information Architecture Design for Naval Interfaces
8.4 Prototyping and Usability Testing in Naval Environments
8.5 Visual and Aesthetic Design of Naval User Interfaces
8.6 Interaction and Animation Design for Naval Systems
8.7 Accessibility and Inclusive Design in Naval Interfaces
8.8 Evaluation and Optimization of the Naval User Experience
8.8 Integration of Emerging Technologies in Naval Interfaces
8.80 Future Trends in Naval Interface Design
9.9 Introduction to Naval HMI/UX Engineering: Fundamentals and Trends
9.9 Principles of User-Centered Design in Naval Environments
9.3 Designing Intuitive and Efficient Interfaces for Naval Platforms
9.4 Human Factors and Ergonomics in Naval HMI/UX Design
9.5 Design of Data Visualization and Control Systems in Naval Environments
9.6 Usability Testing and Evaluation in Naval HMI/UX Systems
9.7 Implementation of Augmented and Virtual Reality in Naval Interfaces
9.8 Safety and Reliability Considerations in Naval HMI/UX Design
9.9 Integration of Artificial Intelligence into Naval Interfaces
9.90 Case Studies: Innovative Applications in Naval HMI/UX Engineering
1.1 Introduction to the Design of Future Naval Interfaces
1.2 UX/HMI Design Principles Applied to Naval Environments
1.3 User Research and Analysis in the Naval Context
1.4 User Interface (UI) Design for Naval Systems
1.5 User Experience (UX) Design in Maritime Environments
1.6 Prototyping and Usability Testing in Naval Environments
1.7 Inclusive Design and Accessibility in Naval Interfaces
1.8 Trends in Naval UX/HMI Design: Augmented and Virtual Reality
1.9 Integration of Artificial Intelligence into Naval Interfaces
1.10 Case Study: Design of an Innovative Naval Interface
2.1 Introduction to the Design and Optimization of Naval Rotors
2.2 Fundamentals of Aerodynamics for Rotor Design
2.3 Modeling Naval Rotors: Software and Techniques
2.4 Rotor Performance Analysis: Efficiency and Stability
2.5 Rotor Design Optimization: Materials and Geometry
2.6 Computational Fluid Dynamics (CFD) for Rotors
2.7 Rotor Design for Different Types of Vessels
2.8 Integration of Rotors with Propulsion Systems
2.9 Testing and Validation of Naval Rotor Designs
2.10 Case Study: Rotor Optimization for a New Naval Design
3.1 Introduction to Advanced Naval HMI/UX Engineering
3.2 User-Centered Design Methodologies
3.3 Design of Adaptive and Customizable Interfaces
3.4 Design of Advanced Control and Monitoring Systems
3.5 Design of Multimodal Interactions: Voice, Gestures, and Touch
3.6 Augmented Reality and Virtual Reality in Naval Environments
3.7 Design of Immersive Experiences for Crew Members
3.8 Advanced Usability Evaluation and Performance Metrics
3.9 Safety Considerations and Human Factors
3.10 Case Study: Design of a Disruptive Naval Command Console
4.1 Introduction to Naval UX/HMI Engineering for the Next Generation
4.2 Interface Design for Remote and Autonomous Operations
4.3 Interface Design for Advanced Navigation Systems
4.4 Interface Design for Real-Time Information Management
4.5 Interface Design for Predictive Maintenance
4.6 Interface Design for Naval Simulation and Training
4.7 Integration of Sensors and Data into User Interfaces
4.8 Interface Design for Decision-Making in Critical Environments
4.9 Cybersecurity Aspects in Naval Interface Design
4.10 Case Study: Design of a Mission Control System for the New Generation
5.1 Introduction to the Revolution in Interface Engineering
5.2 Design of Innovative Interfaces for Ship Control
5.3 Integration of Artificial Intelligence into Interfaces
5.4 Design of Interfaces for Real-Time Data Analysis
5.5 Design of Interfaces for Onboard Communication and Collaboration
5.6 Design of Interfaces for Onboard Energy Management
5.7 Design of Interfaces for Task Automation
5.8 Design of Interfaces for Emergency Scenario Simulation
5.9 Ergonomic and Health Considerations in Interface Design
5.10 Case Study: Design of a Revolutionary Command Interface
6.1 Introduction to Cutting-Edge User Interface Engineering
6.2 Design of Intuitive and User-Friendly Interfaces
6.3 Universal Design Principles Applied to Naval Environments
6.4 Interface Design for Complex Data Visualization
6.5 Interface Design for Weapons System Control
6.6 Interface Design for Safety and Emergency Management
6.7 Designing Interfaces for Personnel Training and Education
6.8 Designing Interfaces for Performance Optimization
6.9 Design Considerations for Extreme Work Environments
6.10 Case Study: Designing a State-of-the-Art User Interface
7.1 Introduction to Innovation in Next-Generation Interfaces
7.2 Interface Design for Mixed Reality Environments
7.3 Interface Design for Fleet Management
7.4 Interface Design for Remote Support and Predictive Maintenance
7.5 Interface Design for Cybersecurity in Naval Systems
7.6 Interface Design for Satellite Communication and Connectivity
7.7 Interface Design for Sustainability and Energy Efficiency
7.8 Interface Design for Adaptation to New Technologies
7.9 Ethical and Responsibility Considerations in Design
7.10 Case Study: Designing an Innovative Interface for the Next Generation
8.1 Introduction to Cutting-Edge Interface Design
8.2 Human-Centered Design Principles in Naval Environments
8.3 Interface Design for Workflow Optimization
8.4 Interface Design for Improved Decision Making
8.5 Interface Design for Reducing Human Errors
8.6 Interface Design for Controlling Complex Systems
8.7 Interface Design for Adaptation to Environmental Conditions
8.8 Interface Design for Inter-Ship Communication
8.9 Considerations on Usability and Accessibility
8.10 Case Study: Design of a State-of-the-Art Interface for a Ship
- 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
Do you have any questions?
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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.
Yes. Online/hybrid format with scheduled labs and visa support (see “Visa & Residence”).