
Ergonomics Course
Master the science of ergonomics and protect workers from the injuries that cost organisations millions every year. This course gives you the practical tools to assess risk, redesign workstations, and build programmes that actually work. From biomechanics to programme management, every topic connects directly to real workplace outcomes.
What you will learn:
You will learn how to identify musculoskeletal risk factors, conduct validated ergonomic assessments, and apply biomechanical principles to reduce physical strain on workers. The course covers workstation design for both office and industrial environments, manual material handling controls, and cognitive ergonomics. You will gain hands-on knowledge of tools like RULA, REBA, and the Revised NIOSH Lifting Equation. You will also learn how to build and sustain a full ergonomics programme, from job hazard analysis to regulatory compliance and continuous improvement.
How you study in a practical way Ergonomics Course
How you practise Ergonomics Course
For companies looking to train their teams
With Dedika for businesses, the course includes exercises and examples tailored to your own business and the way your company needs.
Course content
8 Chapters • 40 LessonsDuration between 4 and 360 hours (you decide)
Chapter 1HideHide detailsSee detailsFoundations of Ergonomics
Foundations of Ergonomics
Lesson 1 • Ergonomics Programme Fundamentals
Outlines the components of an effective workplace ergonomics programme. Frames the course as preparation for real programme implementation.
Lesson 2 • Defining Ergonomics and Its Scope
Covers the definition, history, and domains of ergonomics as a discipline. Provides the conceptual baseline for all subsequent chapters.
Lesson 3 • Work-Related Musculoskeletal Disorders
Identifies common musculoskeletal disorders caused by workplace exposures. Establishes the health and economic rationale for ergonomic intervention.
Lesson 4 • Ergonomic Risk Factors Overview
Introduces primary risk factors including force, repetition, posture, and vibration. Prepares students to identify hazards before formal assessment methods are introduced.
Lesson 5 • Human Anatomy and Physiology Basics
Introduces musculoskeletal and neurological structures relevant to work tasks. Connects anatomical knowledge to injury risk assessment.
Chapter 2HideHide detailsSee detailsAnthropometry and Human Variability
Anthropometry and Human Variability
Lesson 1 • Principles of Anthropometry
Defines anthropometry and explains how body measurement data is collected and reported. Grounds workspace design in quantitative human dimensions.
Lesson 2 • Using Anthropometric Data in Design
Teaches how to apply percentile data to set workspace dimensions and reach zones. Directly links measurement data to practical design decisions.
Lesson 3 • Accommodating Diverse Populations
Addresses design challenges posed by cross-cultural, aging, and differently abled workers. Reinforces inclusive design as a professional obligation.
Lesson 4 • Seated and Standing Workstation Dimensions
Specifies recommended dimensions for seated and standing work configurations. Applies anthropometric principles to the most common workplace setups.
Chapter 3HideHide detailsSee detailsBiomechanics and Posture Analysis
Biomechanics and Posture Analysis
Lesson 1 • Biomechanical Modelling Concepts
Introduces static and dynamic biomechanical models used to estimate joint loads. Bridges observational posture analysis with quantitative risk estimation.
Lesson 2 • Spinal Biomechanics and Low Back Risk
Analyses forces on the lumbar spine during lifting, bending, and twisting. Directly addresses the most prevalent source of occupational injury.
Lesson 3 • Posture Classification and Observation
Teaches systematic observation of body posture during work tasks. Prepares students to document postural data for formal risk assessment tools.
Lesson 4 • Fundamentals of Occupational Biomechanics
Introduces force, torque, lever systems, and centre of gravity as applied to the human body. Provides the mechanical foundation for posture and load analysis.
Lesson 5 • Upper Extremity Biomechanics
Examines shoulder, elbow, wrist, and hand loading during repetitive and forceful tasks. Connects upper limb mechanics to common occupational disorders.
Chapter 4HideHide detailsSee detailsWorkstation Design and Layout
Workstation Design and Layout
Lesson 1 • Thermal Comfort and Air Quality
Identifies temperature, humidity, and air quality parameters that affect worker comfort and performance. Integrates environmental factors into holistic workstation design.
Lesson 2 • Office Workstation Ergonomics
Covers chair, desk, monitor, and keyboard placement for computer-based work. Establishes the standard reference point for office ergonomic assessments.
Lesson 3 • Visual Environment and Lighting
Defines lighting requirements for visual comfort and task accuracy. Connects visual ergonomics to workstation design and error reduction.
Lesson 4 • Industrial and Manual Workstation Design
Addresses workstation layout for assembly, packaging, and manual handling tasks. Extends design principles beyond the office to production environments.
Lesson 5 • Noise and Vibration in the Workspace
Quantifies noise and vibration exposure limits and their health effects. Prepares students to identify and control acoustic and vibratory hazards.
Chapter 5HideHide detailsSee detailsErgonomic Risk Assessment Methods
Ergonomic Risk Assessment Methods
Lesson 1 • Manual Handling Assessment Tools
Covers lifting equation models and push-pull assessment methods for manual tasks. Addresses the highest-risk category of physical work demands.
Lesson 2 • Overview of Assessment Tool Categories
Classifies assessment tools by complexity, output type, and application domain. Guides students in selecting the right tool for a given workplace scenario.
Lesson 3 • Rapid Upper Limb Assessment Techniques
Applies posture-based scoring tools for upper limb and whole-body risk evaluation. Builds hands-on proficiency with the most widely used screening methods.
Lesson 4 • Measurement Instruments and Wearables
Introduces electrogoniometers, force gauges, and wearable sensors for objective data collection. Advances students from observation to instrumented measurement.
Lesson 5 • Checklist-Based and Observational Methods
Introduces structured checklists for rapid workplace screening and hazard identification. Complements quantitative tools with efficient, low-resource approaches.
Chapter 6HideHide detailsSee detailsManual Material Handling and Lifting
Manual Material Handling and Lifting
Lesson 1 • Pushing, Pulling, and Carrying Tasks
Analyses force demands and postural risks in non-lifting manual tasks. Extends manual handling principles beyond vertical lifting.
Lesson 2 • Principles of Safe Lifting Technique
Teaches biomechanically sound lifting postures and load management strategies. Establishes the behavioural baseline before engineering controls are introduced.
Lesson 3 • Mechanical Assists and Lifting Devices
Evaluates hoists, lift tables, conveyors, and carts for manual handling elimination. Connects device selection to task demands and workplace constraints.
Lesson 4 • Training Workers in Manual Handling
Designs effective manual handling training programmes for frontline workers. Addresses the role and limitations of training as an ergonomic control.
Lesson 5 • Task Redesign for Manual Handling
Applies engineering and administrative controls to reduce manual handling demands. Prioritises elimination and substitution over behavioural solutions.
Chapter 7HideHide detailsSee detailsCognitive Ergonomics and Human Error
Cognitive Ergonomics and Human Error
Lesson 1 • Human Error Classification and Analysis
Classifies error types and applies systematic analysis to identify root causes. Prepares students to design error-resistant work systems.
Lesson 2 • Display and Control Design Principles
Applies human factors principles to the design of visual displays and physical controls. Directly reduces cognitive load and error probability in equipment operation.
Lesson 3 • Designing Error-Tolerant Work Systems
Applies defence-in-depth and poka-yoke strategies to prevent and mitigate errors. Integrates cognitive ergonomics into system and process design.
Lesson 4 • Mental Workload Assessment
Introduces subjective and objective methods for measuring mental workload in work tasks. Enables students to quantify cognitive demands alongside physical ones.
Lesson 5 • Cognitive Demands of Work
Defines attention, memory, and decision-making as cognitive resources subject to overload. Establishes the cognitive ergonomics framework parallel to physical ergonomics.
Chapter 8HideHide detailsSee detailsErgonomics Programme Management and Implementation
Ergonomics Programme Management and Implementation
Lesson 1 • Intervention Selection and Implementation
Applies the hierarchy of controls to select and implement ergonomic solutions. Guides students from hazard identification to actionable workplace change.
Lesson 2 • Regulatory Compliance and Documentation
Identifies ergonomics-related regulatory obligations and documentation requirements. Ensures students can demonstrate programme compliance to oversight bodies.
Lesson 3 • Programme Evaluation and Continuous Improvement
Establishes metrics, audits, and review cycles to measure programme effectiveness. Closes the programme management loop with evidence-based improvement processes.
Lesson 4 • Job Hazard Analysis and Prioritisation
Applies systematic job analysis to identify, rank, and prioritise ergonomic hazards. Connects assessment data to resource allocation decisions.
Lesson 5 • Employee Participation and Engagement
Designs participatory ergonomics processes that involve workers in hazard identification and solution development. Builds programme sustainability through frontline ownership.
Lesson 6 • Ergonomics Programme Structure and Governance
Defines programme components, roles, and accountability structures for ergonomics management. Provides the organisational framework for programme deployment.
Your valid completion certificate
This course is for you:
Safety officer: seeking a structured framework for preventing musculoskeletal injuries at work.
HR manager: responsible for reducing injury-related absences and accommodation costs.
Physical therapist: wanting to extend clinical knowledge into occupational injury prevention.
Industrial engineer: designing production workflows with limited human factors training.
Facilities manager: overseeing workstation setups across office and warehouse environments.
Career changer: transitioning into occupational health from a hands-on trade background.
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