Master’s Degree in Ergonomics and Onboard Habitability
Why this master’s programme?
The Master’s Degree in Ergonomics and Onboard Habitability
This program prepares you to design maritime spaces that prioritize the well-being and efficiency of the crew. You will learn to apply ergonomic principles in the design of cabins, bridges, and work areas, optimizing safety, productivity, and long-term health. This program equips you to comply with current regulations and create habitable environments that improve the quality of life on board.
Differentiating Advantages
- User-Centered Design: You will apply participatory design methodologies to understand the real needs of the crew.
- 3D Simulation and Modeling: You will use cutting-edge tools to evaluate the impact of your designs on habitability and ergonomics.
- Ergonomic Risk Assessment: You will learn to identify and mitigate occupational risks in maritime environments.
- Regulations and Certification: You will master international legislation and quality standards related to onboard habitability.
- Real-World Projects: You will work on case studies practical exercises to apply your knowledge in real-world situations in the shipbuilding industry.
- Modality: Online
- Level: Masters
- Hours: 1600 H
- Start date:
Availability: 1 in stock
Who is it aimed at?
- Naval architects and ship interior designers looking to specialize in the design of maritime spaces focused on comfort and efficiency.
- Naval engineers and safety consultants interested in optimizing habitability to improve performance and reduce occupational risks on board.
- Shipping companies and shipyards wishing to implement ergonomic regulations and improve crew well-being to increase productivity.
- Occupational health and safety professionals looking to expand their knowledge of the maritime environment and specific onboard ergonomics.
- Graduates in engineering, design, or architecture aspiring to a specialized career in improving the Working and living environment on ships.
Study flexibility
Adapted to working professionals: flexible online format, access to multimedia content and personalized tutoring.
Objectives and skills
Designing efficient, user-centered living spaces:
Implement principles of ergonomics and universal accessibility in the distribution and selection of furniture and finishes.
Evaluate and optimize human-environment interaction in complex systems:
Analyze the ergonomics and usability of the interface, identifying opportunities for improvement in the presentation of information and the system’s response to reduce the user’s cognitive load.
Integrating ergonomic principles to improve safety and comfort in confined environments:
“Identify specific ergonomic risks, adapt tools/equipment, and promote safe postures to minimize injuries and fatigue in confined spaces.”
Develop and implement innovative solutions for risk and fatigue management:
“Implement proactive monitoring strategies, predictive analytics, and early warning systems to mitigate operational risks and fatigue in real time, optimizing decision-making.”
Leading applied research projects in ergonomics and human factors:
“Define scope, methodologies and resources, managing multidisciplinary teams, risks and the dissemination of results.”
Apply ergonomic assessment methodologies to certify onboard habitability:
Adapt methodologies (RULA, REBA, OWAS) to the maritime environment, considering specific risk factors and validating with IMO/ISO regulations.
Study plan – Modules
- Fundamental principles of ergonomic design applied to maritime interior spaces: anthropometry, biomechanics, and environmental psychology
- Detailed analysis of onboard habitability: thermal, acoustic, and lighting comfort, and air quality in enclosed maritime environments
- International regulations and specific standards for ergonomics and habitability in ships and offshore platforms (IMO, ISO, SOLAS, MLC 2006)
- Advanced ergonomic assessment methodologies: postural analysis, physical load assessment, digital simulations, and 3D modeling
- Identification and analysis of ergonomic risks in maritime interior spaces: fatigue factors, thermal stress, vibrations, and vessel motion
- Integrated design of emergency systems: evacuation routes, adaptive signage, accessibility for people with reduced mobility, and emergency lighting systems
- Technological tools applied to ergonomic design: virtual reality, augmented reality and CAD/CAM software for space optimization
Optimizing interior configurations to minimize workplace accidents and improve operational efficiency: cognitive ergonomics and user-centered design
Implementation of maintenance and quality control programs focused on habitability and ergonomic safety on board
Case studies and failure analyses in maritime habitability, with improvement proposals based on technical and scientific criteria
- Fundamental principles of ergonomics applied to naval design: anthropometric analysis, biomechanics, and human factors specific to marine environments
- International regulations and habitability standards in modern vessels: compliance with SOLAS, ISO 17966, and IMO guidelines related to comfort and safety
- Advanced ergonomic assessment methodologies: use of digital simulations, postural analysis, and evaluation of repetitive strain in confined spaces
- Functional cabin design: integration of optimized work and rest areas to reduce fatigue and improve operational efficiency
- Selection and adaptation of specialized ergonomic furniture for different crew roles and sizes, considering materials resistant to marine environments
- Optimization of lighting, ventilation, and acoustics in living areas to improve comfort and psychological well-being on board
- Analysis of movement flow and accessibility: inclusive design to ensure safety and functionality in various conditions constant swell and movement
Implementation of smart technologies for real-time monitoring of environmental conditions and personalized ergonomics in cabins and staterooms
Evaluation of the impact of ergonomic design on the prevention of musculoskeletal disorders, work-related stress, and improved crew performance
Case studies: redesign of cabins and living areas on commercial, passenger, and military vessels, with a focus on technological upgrades and sustainability
- Fundamentals of ergonomic design applied to marine interiors: biomechanical principles, anthropometry, and functional analysis
- Ergonomic risk assessment and mitigation: hazard identification, evaluation of physical and psychosocial loads in confined spaces
- Integration of emergency systems: design and strategic placement of emergency exits, alarm systems, and accessibility for rapid evacuation
- Ergonomic optimization of habitable cabins: spatial configuration, adjustable furniture, adaptive lighting, and environmental control for comfort and performance
- Design of common and functional areas on board: rest areas, workspaces, and recreation areas with a focus on usability and safety
- Innovative materials and technologies to improve habitability: antibacterial surfaces, sound absorption, and anti-vibration materials
- Advanced virtual modeling and simulation: use of CAD/CAE software for ergonomic testing and human-environment interaction analysis in various environments Maritime environments
- Applicable international regulations and standards: compliance with SOLAS, ISO ergonomics, and specific guidelines for habitability on ships and offshore platforms
- Case studies and comparative analysis: ergonomic design in different types of vessels and platforms, effectiveness evaluation, and implemented improvements
- Strategic planning for ergonomic innovation: design project management, multidisciplinary integration, and continuous evaluation in habitable maritime environments
- Fundamentals of applied anthropometry in the design of onboard living spaces: body metrics, percentiles, ranges of motion, and their integration into the ergonomic design of furniture and access points
- International regulations and technical standards related to vessel habitability, including anthropometric design criteria to ensure safety and comfort
- Advanced principles of interior lighting: spectral analysis, light distribution, recommended illuminance levels, and strategies to optimize visibility and visual well-being in maritime environments
- Design of adaptive lighting systems for vessels, incorporating LED technology, automatic dimming, glare control, and energy efficiency in accordance with current maritime certifications
- Acoustics applied to interior spaces on ships: study of sound sources, acoustic transmission and absorption, insulation techniques, and treatment to minimize structural and environmental noise
- Evaluation of critical acoustic parameters (reverberation, speech intelligibility)
- Advanced design of solutions for interior climate control: HVAC systems, forced natural ventilation, air infiltration, and thermal management based on the specific characteristics of the maritime environment
- Modeling and simulation of interior microclimates on vessels using specialized software: analysis of airflow, relative humidity, temperature, and air quality to optimize habitability
- Multidisciplinary integration in the prototyping of habitable spaces: coordination between anthropometric design, lighting systems, acoustic conditioning, and climate control for functional and safe prototypes
- Certification and homologation processes for onboard habitability: technical criteria, tests, audits, and documentation required to validate compliance with national and international regulations
- Case studies and practical application: detailed review of certified maritime habitability projects, analysis of common errors, and best practices to guarantee optimal standards
- Impact of applied ergonomics on fatigue reduction, performance improvement, and prevention of musculoskeletal disorders in confined maritime work environments
- Advances in emerging technologies for onboard environmental monitoring: lighting, noise, temperature, and air quality sensors, with integrated control and automatic adaptation systems
- Methodologies for the quantitative and qualitative evaluation of onboard comfort and habitability through on-site testing, interviews, and analysis of biomechanical and environmental indicators
- Fundamentals of ergonomics applied to maritime accommodation design: anatomy, anthropometry, and biomechanics for space and comfort optimization
- Advanced ergonomic risk assessment in maritime environments: analysis of physical workload, awkward postures, and fatigue in crew and passengers
- Integration of sensory and monitoring technologies in cabins and common areas for continuous improvement of habitability
- Design and validation of adaptive ergonomic systems: smart furniture, human-machine interfaces, and modular solutions
- Advanced safety systems incorporated into accommodation design: early risk detection, ergonomic alarms, and automated protocols
- Application of international standards (IMO, ISO, SOLAS) in ergonomic implementation and onboard habitability
- Computational modeling and ergonomic simulation in maritime environments: analysis software and virtual prototyping for optimization of
- Design
- Intelligent lighting and environmental control for improved physical and psychological well-being in confined spaces on ships
- Integration of communication and passive safety systems: signaling, evacuation, and accessibility adapted to strict ergonomic criteria
- Case studies: successful implementation of ergonomic technologies on commercial and passenger ships; analysis of results and lessons learned
- Fundamentals of Risk Assessment in Maritime Environments: Methodology, Hazard Identification, and Quantitative Analysis
- International Standards and Specific Regulations for Safety in Interior Spaces on Board: SOLAS, IMO, ISM, and Ergonomic Guidelines
- Analysis of Ergonomic Factors and Their Impact on Risk Generation: Human-Centered Design and Prevention of Workplace Injuries
- Early Warning and Detection Systems: Smoke Detectors, Toxic Gas Detectors, and Advanced Environmental Monitoring Methods in Confined Spaces
- Design and Evaluation of Evacuation Routes: Signage, Emergency Lighting, and Optimization of Human Flow in Adverse Conditions
- Firefighting Equipment and Devices: Selection, Maintenance, and Strategic Placement According to Ergonomic and Regulatory Criteria
- Emergency Scenario Simulations: Computational Modeling Techniques to Predict Behaviors and Failures in Evacuations and Rescues
- Protocols and Procedures Emergency procedures in maritime environments: coordination among crew, roles, and responsibilities in incident management
Integration of communication and control technologies during emergencies: interoperable radio systems, intercoms, and touchscreens
Post-emergency evaluation and continuous improvement: incident analysis, ergonomic feedback, and updating of contingency and immediate response plans
- Fundamentals of ergonomic design applied to maritime environments: biomechanical principles, anthropometry, and human physiology in confined spaces
- Analysis of interior space on vessels: configuration, layout, and circulation to maximize habitability and minimize fatigue
- Ergonomic risk assessment: identification of physical, postural, and mental stress factors in operation and life on board
- Quantitative and qualitative methodologies for ergonomic assessment: application of checklists, 3D simulations, and analysis of physical and cognitive workload
- International regulations and maritime habitability standards: SOLAS, IMO, ISO 11064, and their impact on interior design
- Technological innovations in materials and ergonomic furniture designed for marine environments: resistance, safety, and thermal comfort
- Biophilic design and its influence on the mental health and psychological well-being of the crew: integration of natural elements in spaces enclosed spaces
Lighting, acoustics, and climate control: technical criteria for improving comfort and operational safety in cabins and common areas
Simulation and modeling of habitability and emergency scenarios: analysis of evacuation, accessibility, and safe routes considering ergonomics
Practical application of ergonomic risk assessment techniques and improvement recommendations for space optimization and prevention of occupational injuries
Case studies and applied projects: ergonomic design and evaluation of interiors in passenger ships, logistics vessels, and offshore platforms
- Fundamentals of Advanced Ergonomics: Biomechanical and psychosocial principles applied to maritime environments
- Ergonomic Risk Assessment: Quantitative and qualitative analysis of living spaces on board
- Innovations in Smart Materials: Functional textiles, adaptive surfaces, and antimicrobial coatings for habitability
- Digital Ergonomics: Integration of augmented reality (AR) and virtual reality (VR) technologies for simulation and validation of living space designs
- Advanced Health and Safety Monitoring Systems: Biometric sensors, IoT, and big data applied to continuous crew monitoring
- User-Centered Design: Advanced methodologies for customization and ergonomic adaptation in cabins and common areas
- Space Optimization and Functional Layout: Parametric 3D modeling techniques and spatial optimization algorithms with a focus on Ergonomics
Computational Simulation of Living Space Dynamics: modeling of movement, vibration, and environmental response in ships to improve habitability and minimize fatigue
Integration of Active and Passive Safety Systems: ergonomic design of alarms, signage, and equipment for emergency prevention and management
Applicable International Standards and Regulations: ISO, IMO, and specific guidelines for ergonomics and living space safety in maritime environments
Case Studies and Advanced Studies: application of emerging technologies in real-world projects, results analysis, and continuous improvement
- Fundamentals of ergonomic design applied to maritime interior spaces: principles, regulations, and international standards (ISO, IMO, SOLAS)
- Anthropometric analysis for onboard habitability: measurement, adaptation, and optimization of spaces for crew and passengers
- Biomechanical evaluation of movement in confined spaces: injury prevention and improved operator comfort in critical areas
- Integrated emergency systems: design and strategic location of exits, signage, safety lighting, and firefighting equipment
- Implementation of innovative technologies for environmental monitoring and automated habitability control (air quality, temperature, humidity, and noise sensors)
- Acoustic and thermal optimization: advanced materials and soundproofing techniques to improve well-being and energy efficiency in cabins and control rooms
- Inclusive design and universal accessibility: ergonomic adaptations for people with disabilities or reduced mobility in circulation and access systems of facilities
- Integration of virtual and augmented reality for simulation and validation of maritime interior spaces before their physical implementation
- Analysis of ergonomic risks associated with fatigue and stress in maritime operations and development of prevention and mitigation protocols
- Case studies and field studies: critical evaluation of real projects, identification of improvements, and application of advanced design and habitability methodologies on board
- Methodology and Structure of the Master’s Thesis: Objectives, Scope, and Technical Deliverables
- Multidisciplinary Analysis of Maritime Interior Spaces: Integration of Ergonomic, Safety, and Habitability Criteria
- Advanced Ergonomic Design Applied to Confined Environments: Anthropometry, Biomechanics, and Accessibility on Deck and in Cabins
- Study of Applicable International Regulations and Standards: IMO, SOLAS, ISO 6385, and Specific Occupational Health and Safety Recommendations
- Evaluation of Ergonomic Risks and Mitigation Methods for Onboard Habitability: Quantitative and Qualitative Analysis
- Implementation of Smart Technologies for Environmental Monitoring and Improvement of Thermal, Acoustic, and Lighting Comfort
- Integration of Passive and Active Safety Criteria in Interior Design: Materials, Signage, and Emergency Response
- 3D Simulation and Modeling for the Ergonomic and Functional Validation of the Project Comprehensive
Project planning and management: PMBOK methodology applied to marine interior engineering
Interpretation and development of technical drawings: CAD, BIM, and documentation for interior shipbuilding
Professional project presentation and technical defense: report writing, technical documentation, and evidence gathering
Practical application of field research: observation techniques, interviews, and surveys of crew and users
Innovation and sustainability in design: selection of eco-efficient materials and energy efficiency strategies
Real-world case studies and benchmarking: critical analysis of current maritime habitability and ergonomics projects
Preparation for professional certification and career advancement in ergonomic consulting and maritime design
Career prospects
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- Naval and Aeronautical Interior Designer: Optimizing space and comfort in cabins and workspaces.
- Ergonomics Consultant for the Transportation Industry: Evaluating and improving workstations on ships, aircraft, and other vehicles.
- Human Factors Researcher in Confined Spaces: Studying the impact of design on people’s performance and well-being.
- Occupational Risk Prevention Technician specializing in Habitability: Developing measures to guarantee safety and health at work on board.
- Furniture and Equipment Designer for Small Spaces: Creating innovative solutions to optimize space utilization and improve functionality.
- Universal Design and Accessibility Expert in Transportation: Adapting environments for people with reduced mobility and other special needs.
- Responsible for onboard quality of life improvement projects: Implementation of programs to promote crew well-being and satisfaction.
- Advisor on habitability regulations and standards: Compliance with international regulations and guidelines on ergonomics and comfort.
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Entry requirements
Academic/professional profile:
Bachelor’s degree in Nautical Science/Maritime Transport, Naval/Marine Engineering or a related qualification; or proven professional experience on the bridge/in operations.
Language proficiency:
Functional Maritime English (SMCP) recommended for simulations and technical materials.
Documentation:
Updated CV, copy of qualification or seaman’s book, national ID/passport, motivation letter.
Technical requirements (for online):
Device with camera/microphone, stable internet connection, monitor ≥ 24” recommended for ECDIS/Radar-ARPA.
Admissions process and dates
Online
application
(form + documents).
Academic review and interview
Admissions decision
Admissions decision
(+ scholarship offer if applicable).
Place reservation
(deposit) and enrolment.
Induction
(access to the virtual campus, calendars, simulator guides).
Scholarships and financial support
- Maritime User-Centered Design: Learn to create onboard workspaces and living spaces that prioritize the safety, efficiency, and well-being of the crew.
- Advanced Ergonomics: Master the tools and methodologies for evaluating and optimizing human-machine interaction in marine environments.
- Sustainable Habitability: Incorporate eco-design and energy efficiency criteria to reduce the environmental impact of ships.
- Regulations and Certification: Gain in-depth knowledge of current legislation and international standards regarding ergonomics and habitability.
- Simulation and Prototyping: Apply 3D modeling techniques and virtual reality to validate your designs before implementation. Boost your career as a specialist in the design of safe, comfortable, and productive maritime environments.
Testimonials
This master’s program provided me with the tools and knowledge necessary to lead the ergonomic redesign of the bridge of a fishing fleet. The implemented changes, based on the principles learned during the course, resulted in a 30% reduction in musculoskeletal injuries among the crew and a 15% increase in operational efficiency during long working days.
During my Master’s degree in Naval Design & Architecture, I exceeded my expectations by leading the development of an innovative hybrid propulsion system for recreational boats, which reduced fuel consumption by 30% according to simulations. This project, which later won an international award, allowed me to apply the knowledge I had acquired and demonstrate my capacity for research and innovation in the sector.
I applied the knowledge I gained from my Master’s degree in Ergonomics and Onboard Habitability to the redesign of the bridge of a fishing fleet. The result was a 30% reduction in fatigue-related incidents and a 15% increase in operational efficiency, as reported by the crew after six months of use.
I applied the knowledge from the Master’s in Ergonomics and Onboard Habitability to the redesign of a commercial aircraft cabin, achieving a 15% reduction in incidents reported due to passenger discomfort and an 8% increase in overall customer satisfaction, according to post-flight surveys.
Frequently asked questions
Ergonomics studies the adaptation of work to the physical and mental capabilities and limitations of people.
Yes. The itinerary includes ECDIS/Radar-ARPA/BRM with harbor, ocean, fog, storm, and SAR scenarios.
Online with live sessions; hybrid option for simulator/practical placements through agreements.
Professionals in design, naval architecture, engineering, physiotherapy, occupational medicine and psychology, interested in the design, evaluation and improvement of working and living environments on board vessels, cruise ships or offshore platforms.
Recommended functional SMCP. We offer support materials for standard phraseology.
Yes, with a relevant degree or experience in maritime/port operations. The admissions interview will confirm suitability.
Optional (3–6 months) through Companies & Collaborations and the Alumni Network.
Simulator practice (rubrics), defeat plans, SOPs, checklists, micro-tests and applied TFM.
A degree from Navalis Magna University + operational portfolio (tracks, SOPs, reports and KPIs) useful for audits and employment.
- Methodology and Structure of the Master’s Thesis: Objectives, Scope, and Technical Deliverables
- Multidisciplinary Analysis of Maritime Interior Spaces: Integration of Ergonomic, Safety, and Habitability Criteria
- Advanced Ergonomic Design Applied to Confined Environments: Anthropometry, Biomechanics, and Accessibility on Deck and in Cabins
- Study of Applicable International Regulations and Standards: IMO, SOLAS, ISO 6385, and Specific Occupational Health and Safety Recommendations
- Evaluation of Ergonomic Risks and Mitigation Methods for Onboard Habitability: Quantitative and Qualitative Analysis
- Implementation of Smart Technologies for Environmental Monitoring and Improvement of Thermal, Acoustic, and Lighting Comfort
- Integration of Passive and Active Safety Criteria in Interior Design: Materials, Signage, and Emergency Response
- 3D Simulation and Modeling for the Ergonomic and Functional Validation of the Project Comprehensive
Project planning and management: PMBOK methodology applied to marine interior engineering
Interpretation and development of technical drawings: CAD, BIM, and documentation for interior shipbuilding
Professional project presentation and technical defense: report writing, technical documentation, and evidence gathering
Practical application of field research: observation techniques, interviews, and surveys of crew and users
Innovation and sustainability in design: selection of eco-efficient materials and energy efficiency strategies
Real-world case studies and benchmarking: critical analysis of current maritime habitability and ergonomics projects
Preparation for professional certification and career advancement in ergonomic consulting and maritime design
Request information
Complete the Application Form.
Attach your CV/degree certificate (if you have it to hand).
Indicate your preferred cohort (January/May/September) and whether you would like the hybrid option with simulator sessions.
An academic advisor will contact you within 24–48 hours to guide you through the admission process, scholarships, and compatibility with your professional schedule.
Faculty
Eng. Tomás Riera
Full Professor
Eng. Tomás Riera
Full Professor
Naval engineer specializing in the selection, integration, and optimization of propulsion systems for yachts, high-speed craft, and service vessels.
Eng. Sofía Marquina
Full Professor
Eng. Sofía Marquina
Full Professor
Materials engineer specializing in marine composites and corrosion protection systems for ships, yachts, and port structures.
Eng. Javier Bañuls
Full Professor
Eng. Javier Bañuls
Full Professor
Naval electrical engineer with over fifteen years of experience in the design, integration, and operation of power and automation systems.
Dr. Nuria Llobregat
Full Professor
Dr. Nuria Llobregat
Full Professor
Specialist in meteorological and operational decision-making for coastal and offshore navigation, integrating wind, wave, and current models.
Dr. Pau Ferrer
Full Professor
Dr. Pau Ferrer
Full Professor
Naval engineer with a PhD in applied hydrodynamics and over a decade of experience designing high-performance hulls and marine structures.
Cap. Javier Abaroa (MCA)
Full Professor
Cap. Javier Abaroa (MCA)
Full Professor
MCA-certified captain with command of ocean-going vessels, specializing in advanced maneuvering, navigation management, and bridge safety.