
Ergonomic Interior Design Course
This course provides you with the tools to create environments that maximize the well-being and productivity of their users. Learn to apply the principles of ergonomics and anthropometry to design, considering factors such as…
Prior Knowledge Assessment
These are the skills this programme builds. Tick the ones you already have and we will tell you which part of the syllabus is really for you.
What is the Ergonomic Interior Design Course?
The Ergonomic Interior Design Course
This course provides you with the tools to create environments that maximize the well-being and productivity of their users. Learn to apply the principles of ergonomics and anthropometry to design, considering factors such as lighting, noise, temperature, and furniture layout. Master techniques to prevent injuries and improve comfort in offices, homes, and public spaces.
This course provides you with the tools to create environments that maximize the well-being and productivity of their users.
Differential Advantages
- Practical Ergonomic Analysis: Risk assessment and improvement proposals in real spaces.
- User-Centered Design: Methodologies for understanding user needs and characteristics.
- Material and Furniture Selection: Ergonomic criteria for choosing elements that promote health.
- Regulations and Legislation: Knowledge of applicable regulations regarding ergonomics in design.
- Computer-Aided Design (CAD) Tools: Software application for visualizing and optimizing ergonomic spaces.
Programme highlights
- Fundamentals of Ergonomic Design: Learn the key principles for creating spaces that prioritize user comfort, safety, and efficiency.
- Tools and Methodologies: Master ergonomic assessment techniques and the most advanced design tools to optimize the human-environment interaction.
- Case Studies and Applications: Analyze real-world examples of ergonomic design in diverse contexts, from offices to homes, and apply the acquired knowledge to simulated projects.
- Regulations and Standards: Familiarize yourself with current ergonomic regulations and standards to ensure compliance and quality in your designs.
- Improve Productivity and Well-being: Design spaces that promote the health, comfort, and productivity of users, creating more pleasant and functional.
- Boost your career as a designer and create spaces focused on human well-being.
Programme Structure
The programme is structured in 5 modules, listed below in order of study.
Fundamentals of composite materials, fibreglass, polymeric matrices and technical applications
- Composite material concept and differences between reinforcement, matrix, laminate, sandwich structure and monolithic material
- Types of fibres: fibreglass, carbon, aramid, natural fibres, multi-axial fabrics, mats, roving and hybrid reinforcements
- Types of resins: Polyester, vinyl ester, epoxy, phenolic, gelcoat, topcoat and curing systems
- Main Properties: Strength, Stiffness, Weight, Fatigue, Impact, Bending, Traction, Compression and Durability
- Applications in nautical, automotive, construction, industry, repair, furniture, technical parts and prototyping
Manufacturing processes, manual laminate, basic fibreglass construction techniques and techniques
- Preparation of molds, surfaces, release agents, cleaning, dimensional control and prevention of initial defects
- Manual laminate with fibre, resin, catalyst, brushes, rollers, compaction and removal of bubbles
- Fabric cutting, fibre orientation, layer sequence, overlaps, local reinforcements and thickness control
- Resin mix, proportions, working times, curing, temperature, humidity and workshop conditions
- Manufacture of simple parts, housings, panels, covers, supports, minor repairs and auxiliary components
Advanced techniques, vacuum, infusion, sandwich structures and quality control of laminate
- Vacuum bag, consumables, sealing, compaction, air control and reduction of excess resin
- Resin infusion, flow channels, meshes, vacuum lines, entry points and impregnation advance verification
- Sandwich structures with foam cores, raft, Honeycomb, reinforcements, inserts and concentrated loading areas
- Frequent defects: delamination, dry areas, excess resin, bubbles, contamination, low adhesion and incomplete curing
- Visual inspection, thickness measurement, hardness, adhesion, humidity, weight, continuity and traceability of materials
Repair, restoration, reinforcement and diagnosis of damage to composite materials
- Typologies of damage: cracks, shocks, abrasion, moisture, delamination, breakage, loss of stiffness and deformation
- Diagnosis by visual inspection, percussion, humidity measurement, layer identification and severity assessment
- Surface preparation: sanding, beveling, cleaning, drying, degreasing and conditioning for repair
- Repair of laminates with patches, layer reconstruction, compatible resins, overlaps and thickness control
- Reinforcement of critical zones, joints, edges, supports, perforations, anchors and loading areas
Applied project of composite materials and fibreglass
- Case definition: technical part, repair, panel, housing, nautical component, prototype, reinforcement or sandwich structure
- Diagnosis of technical requirements, loads, environment of use, available materials, expected finish and process restrictions
- Laminate design with selection of fibres, resins, orientation, sequence of layers, thicknesses and reinforcement zones
- Planning of the manufacturing or repair process with molds, preparation, laminate, curing, quality control and finishing
- Preparation of the safety plan, maintenance, waste management, technical documentation and prevention of defects
Study Time and Workload
300 hours of study, online and at your own pace. Move the slider to the hours a week you can really put in.
Architects and interior designers who seek to innovate in their projects, optimizing functionality and user well-being.Engineers and builders interested in integrating user-centered design from the initial stages of construction.Occupational health professionals who wish to improve work environments, preventing risks and promoting productivity.Architecture, design, and ergonomics students wh
Academic direction and faculty
The teaching team at Navalis: working professionals who deliver and oversee the institute's programmes.








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Learning Outcomes
- 01Optimize functionality and environmental comfort
- 02Adapt the design to the user's needs
- 03Integrate ergonomic principles into spatial distribution
- 04Promoting occupational health and well-being
- 05Minimize the risk of musculoskeletal injuries
- 06Improve efficiency and productivity at work
Career Opportunities
Entry Requirements
Admissions Process
No waiting for a phone call. If your documents are complete, you can pay in the same session.
Academic/Professional Profile:Bachelor's/Undergraduate degree in Architecture, Interior Design, Engineering, Ergonomics, or a related field; or demonstrable professional experience in interior design or ergonomics.Knowledge:Basic knowledge of interior design, ergonomics, anthropometry, and accessibility regulations. Proficiency in CAD software and design tools.Documentation:Updated CV, portfolio of work (if applicable), copy of degree or work experience certificate, ID/Passport, letter of interest (optional).Technical Requirements (for online):Computer with camera/micro
Frequently Asked Questions
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