By Michelle Smyth, AIA, ALEP, LEED AP, NCARBÌý

A high school nursing lab built in 2011 may bear little resemblance to the hospital environment students will enter today. That widening gap between classroom training and workplace reality is driving a wave of investment in career and technical education (CTE) as districts work to prepare students for industries struggling to find qualified workers.Ìý

The demand is significant. Allied health careers alone — spanning occupations from medical assistants to veterinarians — are expected to see 1.9 million job openings every year through 2034, with construction, advanced manufacturing and IT facing similar pressures.Ìý

Schools are investing millions of dollars in CTE to help close those workforce gaps and strengthen local economies. The challenge isn’t whether to invest; it’s determining where those investments will have the greatest impact and ensuring today’s programs, partnerships and facilities can remain relevant as workforce needs change.Ìý

Shaping ProgramsÌý

The best CTE programs begin with the local labor market’s needs, not a floor plan.Ìý

Direct and continuous engagement with local employers, through business luncheons, advisory councils and one-on-one interviews, should inform which courses a district offers and at what scale. Industry partnerships distinguish durable workforce demand from a temporary interest, while student demand remains essential for enrollment and long-term program health. A program built around one employer’s current opening or a trending industry risks losing relevance once that trend fades. The strongest programs are grounded in workforce patterns with staying power, not short-term trends.Ìý

Partnering with community and technical colleges can turn isolated high school coursework into a clear pathway toward postsecondary credentials and employment. Avoiding duplication of programs a nearby district or college already offers matters just as much. Taxpayers deserve programs built around unmet needs, not redundant capacity.Ìý

A comprehensive advisory process brings employers, educators and facility planners to the table early to answer key questions that should precede every programming decision: What skills does this community actually need workers to have? And how can facilities be designed to adapt to future needs?Ìý

Those same local business relationships do more than validate course content; they shape how it gets built and equipped. Business partners can contribute equipment and funding, co-develop curriculum, provide instructors or mentors, and create apprenticeships and dual-credit pathways of their own. These partnerships can also strengthen a program’s case for bond support and grants by demonstrating clear employer demand and investment in its success.Ìý

Design Facilities as Workplace SimulatorsÌý

In CTE, innovation should be measured by authenticity rather than novelty. A genuinely innovative facility mirrors the conditions students will encounter on the job — from equipment and technology to workflow, safety protocols and even how teams move through a space.Ìý

This means labs are built for hands-on learning rather than classroom lectures. They’re not generic flex labs, but specialized spaces for healthcare, AI, advanced manufacturing, IT and cybersecurity. Visible, transparent workspaces create an environment that feels less like a traditional classroom and more like the professional settings students are preparing to enter.Ìý

Achieving that authenticity starts with decisions made long before a ribbon-cutting. Because equipment decisions are facility decisions, product and equipment vendors need a seat at the planning table alongside educators and architects. The machinery, software and safety systems a supplier can provide can dictate what a lab can realistically teach, and their early involvement avoids costly retrofits later.Ìý

The building itself can teach, too. Designers can selectively expose and label mechanical, electrical and structural systems so construction, engineering and trades students can study the building they occupy. A glass wall into the mechanical room turns a lecture point into something tangible. A dashboard displaying the building’s energy or water use turns facilities data into a live sustainability case study. Done well, the facility becomes a full-scale teaching tool for the trades students are training for.Ìý

Authenticity brings real design consequences. A lab that functions like a fabrication shop, hospital floor or data center also inherits workplace safety and technology requirements. Safety must be embedded through clear zoning, proper ventilation, machine guarding, supervising sightlines and emergency shutoffs — not added after equipment is selected.Ìý

Technology planning must account for equipment not yet specified. This requires electrical capacity with room to grow, robust wired and wireless connectivity and secure network segmentation. Facilities, IT and instructional staff need a seat at the same table during design, not a handoff after the fact.Ìý

Design FlexibilityÌý

A CTE facility designed too tightly around today’s industry needs can become obsolete long before the building reaches the end of its useful life. Some of the careers a facility will need to prepare students for in 10 to 25 years don’t exist yet, which makes the challenge even harder. Project teams should design spaces that can flex to accommodate industries the district hasn’t planned for, not just the ones on today’s roadmap.Ìý

Infrastructure should adapt as programs, equipment and technologies change. Convertible labs, reconfigurable power and data systems and adaptive reuse can give districts room to evolve without requiring major renovations each time workforce needs shift.Ìý

For architects and contractors, that translates into modular casework, movable partitions and accessible chases for power and data that facilities teams can reconfigure without a full renovation.Ìý

Take a district that built a CTE wing in its high school around a bank of convertible labs. The spaces were designed with shared power, data and ventilation infrastructure rather than systems tied to a single program. One lab opened as a computer-aided drafting and engineering-design studio, but a decade later, student interest and regional workforce needs shifted toward healthcare. The district now wants to convert the space into a health-science simulation lab. Because the room was never hardwired to one curriculum, the conversion requires new casework and equipment rather than a structural renovation.Ìý

Some specialization is unavoidable and often desirable, particularly when authentic training requires industry-specific equipment, ventilation, utilities or safety systems. But hardwiring every room to one piece of equipment or curriculum creates unnecessary risk. Planners should consider which parts of the building will be expensive or difficult to change.Ìý

Build for Today’s Workforce and Tomorrow’s UnknownsÌý

No district can predict what its labor market will need 10 or 20 years from now, and trying to design around a perfect forecast is the wrong goal. The stronger strategy is to create CTE programs that stay closely connected to employers, and facilities that can absorb change without sacrificing the authenticity students need today.Ìý

The best CTE environments aren’t the ones designed to become anything. They are the ones designed with enough specificity to prepare students for real work today and enough adaptability to add new programs as technology paves the way for new careers or additional workforce needs arise.Ìý

Michelle Smyth, AIA, ALEP, LEED AP, NCARB, is a K-12 Practice Leader at McMillan Pazdan Smith and a member of the ÌÇÐÄÉÙÅ® Editorial Advisory Board.Ìý

This article was originally published in the .

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