Industrial Ergonomics Capstone

This capstone course integrates the knowledge and skills developed throughout the Matheson Certified Ergonomic Evaluation Specialist (CEES) pathway into full professional industrial ergonomic practice. Rather than introducing new assessment tools or intervention techniques, the course challenges participants to apply previously learned concepts within realistic, unsignaled industrial scenarios that require judgment from referral and intake through assessment, recommendation development, implementation planning, documentation, communication, and follow-up.

Participants learn to bring together the exposure-capacity framework, biopsychosocial reasoning, Job Demands Analysis, injury-data interpretation, industrial ergonomic assessment, control selection, worker engagement, and program-level considerations within a single case. The course emphasizes recognizing which body of knowledge is most relevant at each stage of an assessment rather than applying every tool or concept to every situation.

The course applies the three-tier industrial ergonomic assessment framework, including worker self-assessment, targeted professional assessment, and comprehensive job or worksite assessment. Participants determine the appropriate depth and scope of an evaluation based on the referral question, identified concerns, job demands, available information, and level of risk rather than defaulting to a comprehensive assessment in every case.

Case-based instruction develops judgment in worker interviewing, job-demand analysis, observation of variable industrial work, selection and interpretation of ergonomic assessment tools, and identification of primary exposure drivers. Participants also learn to recognize when an apparently straightforward ergonomic concern is influenced by production demands, work organization, psychosocial factors, worker variability, or broader organizational conditions.

The course emphasizes development of evidence-based, feasible, and appropriately sequenced recommendations that address the primary drivers identified during the assessment. Participants determine when engineering controls, administrative controls, work-practice strategies, worker education, or combinations of interventions are appropriate. Recommendations are evaluated for feasibility, worker acceptance, operational impact, implementation requirements, and the need for follow-up to determine whether exposure was actually reduced.

Particular attention is given to professional documentation and communication. Participants produce defensible records that connect the referral purpose, observations, job demands, assessment findings, interpretation, recommendations, and follow-up. Documentation expectations vary according to the scope and purpose of the assessment, from targeted evaluations to comprehensive industrial ergonomic reports and broader worksite initiatives.

Throughout the course, participants work through realistic industrial ergonomic cases without being told in advance what the primary issue will be. Some cases involve straightforward workstation or material-handling concerns, while others require recognition of psychosocial contributors, production-system constraints, worker engagement issues, implementation barriers, injury trends, or program-level concerns. The goal is to develop the ability to recognize what kind of ergonomic problem is actually present and respond appropriately rather than simply completing a predetermined assessment process.

Target Audience:

Physical Therapists, Physical Therapist Assistants, Occupational Therapists, Occupational Therapy Assistants, Athletic Trainers, Occupational Health Nurses, Safety Professionals, Human Resources Professionals, Line Leaders, Supervisors, Safety Team Members, and other licensed rehabilitation professionals involved in work rehabilitation, functional restoration, and return-to-work decision-making.

Instructional Level:

Intermediate

Prerequisites:

Completion of: Workplace Injury Mechanisms & WMSDs, Psychosocial Factors in Work Injury and Recovery, Job Demands Analysis, Using Injury Data to Drive Prevention, Industrial Ergonomics Risk Assessments & Recommendations, Ergonomic Control Strategies & Worksite Design, Worker Education and Behavior Change in Ergonomics, and Ergonomic Program Design & Sustainability.

Confirmed at checkout.

Learning Objectives:

Upon completion of this course, participants will be able to:

• Integrate the exposure-capacity framework, biopsychosocial reasoning, Job Demands Analysis, injury-data interpretation, ergonomic assessment, and intervention principles within a complete industrial ergonomic case.
• Apply the three-tier industrial ergonomic assessment framework to realistic, unsignaled scenarios and determine the appropriate scope and depth of assessment.
• Select assessment methods and structured ergonomic tools based on the referral question, worker presentation, job demands, observed exposure, and level of risk rather than applying a predetermined assessment battery.
• Integrate worker interview, job-demand information, workplace observation, injury data, and structured assessment findings to identify the primary drivers of ergonomic exposure.
• Develop evidence-based, sequenced, and feasible ergonomic recommendations that appropriately apply engineering controls, administrative controls, work-practice strategies, and worker education.
• Incorporate worker participation, operational requirements, feasibility, and implementation considerations when developing ergonomic solutions.
• Recognize when individual ergonomic findings indicate broader production, organizational, psychosocial, or ergonomics-program concerns requiring escalation or a systems-level response.
• Produce a defensible professional record connecting referral purpose, observations, job demands, assessment findings, reasoning, recommendations, implementation considerations, and follow-up.

Educational Methods:

Case-based instruction, realistic industrial scenarios, worker interview analysis, Job Demands Analysis, industrial work observation, structured ergonomic assessment, assessment-tool interpretation, control-selection exercises, recommendation development, implementation planning, professional documentation exercises, and integrated case-management activities.

Continuing Education Units / Contact Hours:

4 hours. Full Attendance Required.

Sponsors:

This program is not sponsored by any commercial entity. No commercial support has influenced course content.

Disclosure Statement:

All faculty and planners have disclosed relevant financial and non-financial relationships. Any potential conflicts of interest have been reviewed and mitigated in accordance with continuing education standards.

Cancellation & Refund Policy:

Refunds are available in accordance with Matheson's cancellation and refund policy. Please refer to our Cancellation Policy for full details.

• The stages of an industrial ergonomic case and the body of knowledge each stage draws on
• Framing a case from the referral before any assessment activity begins, using the eight framing questions
• The three-tier framework as a scoping decision made at intake and revisited after the interview and observation
• Why the tier is chosen for the question, and why it can go up during a case but should rarely come down
• Sensor, wearable, and AI-assisted video data as a fourth information source: what it measures well, what it cannot measure, and the conditions that make it usable
• Learning emphasis: Recognizing which small part of everything already learned is relevant at each stage of a case, and treating each body of knowledge as a lens to pick up when the case calls for it rather than a step to complete.

• Framing a single-worker referral from an occupational health nurse in a commercial laundry
• Using the interview to localize an exposure in task, time, and body region, and screening for psychosocial contributors
• Expedited Job Demands Analysis of a single handling task
• Selecting a battery of structured tools for a task with postural, lifting, and pushing components: the Nordic Musculoskeletal Questionnaire, Washington State checklists, OWAS, REBA, KIM-LHC, the Liberty Mutual tables, KIM-PP, and Borg CR-10
• Converging interview, observation, and tool findings on the primary driver, and recognizing an anthropometric mismatch introduced by an equipment change
• Applied activity: Write recommendations at three cost tiers for each driver and produce a Tier 2 record.

• A hand symptom referral that arrives with a proposed cause already attached
• Breaking a repetitive hand-intensive task into sub-tasks with distinct force and frequency profiles
• Selecting among the Strain Index, the ACGIH TLV for Hand Activity Level, and RULA by the question each answers
• Rating the influential Strain Index variables with an observed and reported basis, and stating the score under neighboring ratings
• Reporting a tool result in language a supervisor can repeat to a manager
• Applied activity: Rate the Strain Index variables for each sub-task and answer the supervisor's question about whether new equipment will solve the problem.

• A referral generated by a wearable-sensor pilot in a beverage bottling plant, framed by the referrer as a technique problem
• Determining what a wearable sensor has and has not measured before assigning weight to its output
• Applying the NIOSH Lifting Equation to a multi-destination lift, including the Composite Lifting Index, with the arithmetic shown
• Using the Liberty Mutual tables for lifting and pushing, and expressing the result in population terms
• Stating what sensor and video data contributed, what they could not answer, and how they should be used going forward
• Applied activity: Select and justify the tools that characterize the palletizing exposure, and write the finding that redirects a technique referral to the work.

• Choosing the structured tool by the question it answers rather than the body part involved
• Selecting a provisional tier and tool set from short industrial scenarios
• Naming the tools that do not apply and why
• Identifying the single measurement most needed before a tool can be run
• What a wearable, a system-estimated score, or a single tool result does and does not establish
• Applied activity: Work a tool-selection drill across multiple industrial scenarios, then complete a knowledge check.

• The one case that runs every stage from referral to follow-up, with two recordable injuries, a carrier, a lead on modified duty, and a plant manager with a theory
• Framing a multi-stakeholder referral and identifying the purposes each stakeholder holds
• Reading injury records and production data before interviewing, and using them to shape the interview
• Job Demands Analysis of a performed job that differs from the designed job, and structured tools including the Composite Lifting Index
• Distinguishing a cumulative driver from a precipitating event, and producing sequenced recommendations, a return-to-work plan, a report for two audiences, and a follow-up that measures exposure
• Applied activity: Identify the psychosocial signals in the interviews, reconcile two injuries on different tasks to a common driver, and develop the full recommendation and follow-up set.

• A referral with no worker in it: why one of five facilities has twice the injury rate of its peers
• Breaking facility-level injury data down by job, shift, tenure, and employment type to locate the exposure
• Selecting a tier only after the data has identified a station or a pattern
• Combining a Tier 1 screening step with a Tier 2 station assessment when the data warrants both
• Separating what an assessment can fix from what only the organization can
• Applied activity: Write an escalation that names a systemic finding with evidence, an addressee, and a decision requested.

• A follow-up case: the recommended control was installed, nobody uses it, and symptoms are unchanged
• Distinguishing adoption, design, and diagnosis failures when an installed control has not reduced exposure
• Evaluating a prior assessment record for what it did and did not establish
• Re-diagnosing using the worker interview, a Job Demands Analysis, and the structured tools
• Building recommendations that fit the pace, the pay system, and the floor, and that workers trial before purchase
• Learning emphasis: Treating worker acceptance as a design requirement rather than a compliance problem, and answering a "worker problem" conclusion with evidence about the work.

• The report as the place where one reader is told what to do next, with enough support to defend it
• Writing a Tier 2 record that leads with the finding and the first action rather than the methods
• Documenting divergent sources, assessment limitations, and the next measurement without hiding the disagreement
• Handling psychosocial and personal information as recovery context through the appropriate channel
• Answering the question asked, then escalating a finding outside the assessment's scope
• Applied activity: Write reports for three industrial scenarios using a free write, the structured report template, the self-evaluation checklist, and comparison against a model.

• A complete commercial construction case packet, presented unsorted in the order a practitioner would encounter it
• Working a full industrial ergonomic case independently from referral to follow-up plan
• Submission components: framing worksheet, tier decision and scope, Job Demands Analysis summary, tool worksheets, convergence table, recommendations, report, and follow-up plan
• Firm length limits, and what a professional submission leaves out
• Scoring across eight dimensions on a four-point scale, with 24 of 32 and no dimension below 2 as the passing standard
• Applied activity: Complete and submit the case for instructor scoring, or score it against the rubric and sealed model answer in self-paced delivery, and identify the dimensions that need work.

• Applied discussion is integrated throughout the course using seven industrial cases from commercial laundry, furniture manufacturing, beverage bottling, commercial baking, materials recovery, boat building, and commercial construction. Work stops pause each case at the points where a practitioner would have to decide something, and participants write their answer before comparing it with guided reasoning. In instructor-led delivery, selected cases include group prompts.

• Assessment includes a tool-selection drill and knowledge check, written responses at each case work stop, documentation practice, and an independently worked case submission scored against an eight-dimension rubric covering framing and scope, tier decision, Job Demands Analysis, tool selection and application, convergence and primary driver, recommendations, the report, and follow-up and verification.

• The Industrial Ergonomics Capstone Course Manual, the Capstone Toolkit of worksheets, templates, and checklists (also provided as a separate download for use in practice), course presentations and supporting instructional resources, and writing materials or an electronic device for case work and the written submission are required. A calculator or spreadsheet may be used for tool calculations, including the NIOSH Lifting Equation and Composite Lifting Index. On-demand and live-stream participants will also need reliable internet access and a device capable of accessing the course platform.

• Clinical and workplace reasoning is reinforced by presenting unsignaled cases in which participants must decide, with an unfamiliar job in front of them, which body of knowledge to use, at what depth, in what order, and when to stop. Participants frame each referral before assessing, choose the tier for the question rather than for comfort, select tools by the question each answers, converge every information source on a primary driver, and produce a defensible record written for the reader who has to act on it.