Introduction-to-Biomechanics-in-Industrial-Design.pptx

Biomechanics, the study of how the human body moves and interacts with its environment, is a crucial consideration in industrial design. Understanding biomechanics helps designers create products that are ergonomic, efficient, and safe for users.

1. Introduction to Biomechanics in Industrial Design Biomechanics, the study of how the human body moves and interacts with its environment, is a crucial consideration in industrial design. Understanding biomechanics helps designers create products that are ergonomic, efficient, and safe for users. by Ts. Dr. Darliana Binti Mohamad

2. Understanding Human Anatomy and Movement 1 Skeletal System Analyzing the structure and function of the skeletal system provides insights into how the body can interact with products. 2 Muscular System Studying the muscles and their roles in movement informs the design of tools, controls, and interfaces. 3 Kinetic Chains Understanding how body parts work together in coordinated movement guides the design of ergonomic workflows.

3. Ergonomic Design Principles Anthropometry Measuring and accounting for human body dimensions ensures products fit users comfortably and securely. Posture and Positioning Designing for natural, neutral postures reduces strain and fatigue during product use. Task Analysis Examining how users interact with products informs intuitive, efficient, and user-friendly designs.

4. Biomechanical Principles in Design Kinematics is the branch of mechanics that is concerned with the phenomenon of motion without reference to mass or force. Kinetics is the branch of mechanics that is concerned with motion, mass and forces that produce motion. Force Analysis How forces act on the body and how this influences design (e.g., pressure distribution, load management)

5. Applying Biomechanics to Product Development 1 Iterative Prototyping Testing prototypes with users provides valuable feedback to refine the design for optimal biomechanics. 2 Motion Capture Advanced technology tracks user movements to analyze how the body interacts with products. 3 Usability Studies Observing and gathering data on real-world usage informs design improvements for comfort and safety.

6. Analyzing User Interactions and Experiences Task Mapping Charting the steps users take to accomplish goals guides the design of intuitive workflows. Cognitive Ergonomics Considering mental workload and decision-making processes enhances the overall user experience. Emotional Response Designing for positive emotional engagement creates a more satisfying and memorable user experience.

7. Optimizing Product Safety and Comfort Safety Anticipating and mitigating potential hazards ensures products are used without risk of injury. Comfort Designing for optimal ergonomics and user-friendly features enhances the overall product experience. Durability Understanding how products will be used and maintained leads to more robust and long-lasting designs.

8. Integrating Biomechanics with Aesthetic Design Form Designing products with shapes and contours that complement human anatomy and movement. Texture Selecting materials and surfaces that provide a comfortable and grippy user interface. Color Using colors to enhance visibility, highlight important controls, and create an appealing aesthetic.

9. Conclusion: The Importance of Biomechanics in Industrial Design Improved Usability Products that are ergonomic and intuitive to use lead to greater customer satisfaction. Enhanced Safety Applying biomechanics principles reduces the risk of injury and accidents during product use. Competitive Advantage Incorporating biomechanics gives designers a competitive edge in creating innovative, user-centric products.

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