Why Ergonomics Matters on the Factory Floor and Beyond
Every vehicle that rolls off a North American assembly line is the product of thousands of human movements: lifts, reaches, twists, and grips repeated shift after shift. Each of those movements carries a measurable risk of fatigue and injury. Ergonomics — the science of fitting tasks, tools, and workstations to the people who use them — exists to quantify that risk and design it out of the workplace before anyone gets hurt.
In Canada’s automotive heartland, few institutions have shaped this discipline as decisively as the University of Windsor. What began with one kinesiology student’s summer job at a General Motors transmission plant grew into an academic program that has trained ergonomists for nearly three decades. Its graduates now monitor workstation design, assess injury risk, and validate manufacturing systems at major automakers across Windsor, Detroit, and beyond.
For students considering careers in kinesiology, human kinetics, engineering, or occupational health and safety, the program’s history offers a practical roadmap — and a useful reminder that protecting workers is as much a design problem as a medical one.
Wondering how a human kinetics background leads into industrial safety careers? Explore the Certificate in Human Factors and Ergonomics at the University of Windsor to review the curriculum and admission requirements.
How a Summer Job Built the University of Windsor Ergonomics Program
The program traces back to an unlikely application. Jim Potvin, then a kinesiology student searching for summer work, applied to the General Motors transmission plant in Windsor — a workplace that typically hired engineering students. He pitched the gap itself as his qualification: factories full of engineers, he argued in his application, needed someone who genuinely understood the human body. The argument earned him an interview and, eventually, the job.
That summer taught Potvin two lessons that still define the field. First, assembly-line work exacts a real physical toll that can be measured and reduced. Second, meaningful improvement requires collaboration — sitting down with engineers and line workers, observing tasks, and proposing changes that improve safety without disrupting production. The experience led him to graduate research in occupational biomechanics and, in 1997, back to the University of Windsor to establish its ergonomics program in the Faculty of Human Kinetics.
Dr. Dave Andrews joined shortly afterward, drawn in part by the program Potvin had created. His doctoral research documented the physical demands and injury risks of automobile manufacturing tasks, and through the AUTO21 research network he extended that work across the sector. Over time, students completed placements far beyond car plants: vegetable harvesting in agriculture, nursing in healthcare, automotive parts manufacturing, injury claims and rehabilitation, and office workstation design in higher education.
Automotive Safety as Anchor and Launchpad
Windsor’s position across the river from Detroit made the automotive sector a natural anchor for the program. As automakers began placing ergonomists on every launch team for every new vehicle, demand grew for graduates who could evaluate factory designs and retooling plans before equipment was ever installed. Potvin notes that companies increasingly justified this work as a quality strategy, not just a safety measure: less-fatigued workers make fewer errors, produce better vehicles — and suffer fewer injuries.
From Assembly Lines to Cockpit Design
Automotive ergonomics reaches past the plant floor and into the vehicle itself. Ergonomists influence cupholder placement, seat adjustability, control layouts, and crash-safety provisions for people across a wide range of body sizes. Whether monitoring how a driver interacts with an infotainment screen or how an operator reaches into a door assembly, the discipline’s focus stays the same: measure the human, then shape the environment to match.
A Faculty That Spans the Field
Today the program draws on researchers whose work stretches across the ergonomics and human factors umbrella. Dr. Nadia Azar studies injury mechanics in professional drummers and performing artists. Dr. Francesco Biondi examines driver distraction and in-vehicle technology. Drs. Joel Cort and Paula van Wyk round out the team with additional specializations. This breadth matters for students: many arrive planning to work in sport and discover that athletes are workers too, subject to the same overuse patterns and preventable injuries as any factory employee. Along the way, they build teamwork and conflict-resolution skills that transfer directly to industrial settings.
Alumni in Action: Monitoring Safety at Stellantis and General Motors
The program’s impact is easiest to see in the careers of its graduates.
Virtual Factories at Stellantis
Keenan O’Brien, who studied under Dr. Cort, now works in Vehicle Process Engineering at Stellantis. His team uses simulation and digital engineering technologies to design, validate, and optimize future manufacturing workstations and factories across North America. The operating principle is simple to state and demanding to execute: virtually simulate every operation before a single bolt is installed, checking reach, vision, and posture in 3D so problems surface on a screen instead of on a worker’s back.
O’Brien is candid about why this work matters. Customers judge a vehicle by its technology, comfort, and design; they rarely consider how it was assembled. Yet those assembly decisions shape quality, cost, productivity, and worker well-being. His own path from ergonomics specialist to engineering leader, he says, rested on the technical foundation and problem-solving habits formed at Windsor, where his graduate work used some of the earliest advanced 3D design tools in automotive manufacturing.
Digital Human Modelling at General Motors
Ryan Porto (BHK ’03, MHK ’06) holds a parallel role at General Motors as a technical specialist in global manufacturing ergonomics. He leads the adoption of emerging technologies — digital human modelling, motion capture, virtual reality, wearable sensors, exoskeletons, and AI-enabled assessment tools that monitor worker movements and flag injury risks. The role also includes research partnerships with academic institutions, a practice he traces directly to his graduate internship and to Potvin’s mentorship.
Porto credits his Windsor training in biomechanics, anatomy, physiology, and human movement with teaching him how people actually interact with physical work environments — insight no software package can replace.
Skills That Outlast Technology Cycles
Both alumni stress the same point: tools change, principles endure. O’Brien advises building a durable foundation in biomechanics, human factors, physiology, and injury prevention — knowledge that remains relevant no matter which software platform or sensor dominates the decade. In practice, that foundation looks like:
- Biomechanics and anatomy: quantifying the forces acting on the spine, shoulders, and wrists during real tasks.
- Injury prevention: identifying risk factors such as repetition, awkward posture, and forceful exertion before injuries occur.
- Digital assessment: using 3D simulation, motion capture, and wearables to monitor and validate workstation designs.
- Communication: persuading engineers, managers, and operators to change how work is done — often the hardest and most valuable skill of all.
Practical Steps to Start a Career in Ergonomics
For students drawn to the field, the graduates’ advice converges on a few concrete actions:
- Get hands-on early. Lab work, co-op placements, and internships convert theory into competence. Windsor’s graduate internship option places students directly in working environments.
- Join the professional community. Porto urges students to participate in ergonomics and human factors student groups, and to attend conferences, workshops, and webinars — partly to learn about emerging technologies, but just as importantly to build a network. Many careers and collaborations begin with a hallway conversation.
- Think beyond job titles. Ergonomics leads into health and safety, but also into product design, engineering, vehicle cockpit development, and injury prevention for professional athletes.
- Consider structured credentials. A formal certificate signals competence to employers and gives structure to an otherwise self-directed skill set.
Comparing programs? Review the Department of Kinesiology’s program pages or contact an academic advisor to discuss which pathway fits your background.
Will Automation Replace Ergonomists?
Prospective students frequently worry that robotics and artificial intelligence will shrink opportunities in occupational safety. Potvin, who has watched several economic cycles move through the automotive sector, argues the opposite. Pressure to produce more with fewer resources increases the physical and cognitive demands on remaining workers, which raises — rather than removes — the need to monitor and manage injury risk. Robots, in his view, augment ergonomists’ work rather than eliminate it. His blunt assessment of the field’s future: he is not worried, not in his lifetime.
The alumni careers described above support that view. Simulation engineers, motion-capture specialists, and digital human-modelling experts are all, at their core, ergonomists using new instruments to answer old questions about human limits.
Key Takeaways for Prospective Students
- Ergonomics applies the science of human movement to workplace design, with automotive safety among its most demanding and well-funded applications.
- The University of Windsor has trained ergonomists since 1997; its graduates now shape manufacturing systems at Stellantis and General Motors.
- Core skills — biomechanics, injury prevention, human factors — transfer across healthcare, agriculture, manufacturing, sport, and office settings.
- Hands-on experience through labs, internships, and co-op placements remains the most reliable route into the profession.
- Automation is expanding the field’s toolkit, not eliminating its purpose.
A Field Where Human Knowledge Has Daily Consequences
Ergonomics sits at a practical intersection of applied physiology, engineering support, and injury prevention. For students who want their understanding of the human body to produce measurable results — fewer injuries, better products, safer factories — few disciplines offer a clearer path. The University of Windsor’s program demonstrates that path in action: from a first summer job on a Windsor assembly line to leadership roles deciding how vehicles will be built across North America.
Ready to investigate further? Explore the Human Factors and Ergonomics Certificate, browse related articles on careers in human kinetics, or share your questions about studying ergonomics in Canada in the comments below.
