Classroom Makerspaces in Canada: Curriculum, Tools and Safety by Grade 

A classroom makerspace is a teacher-led area where students design, build, test and improve physical or digital projects. In Canadian schools, it can support curriculum expectations involving technological education, coding, design and applied skills. The right setup depends on the students’ grade level, available space, ventilation and power, teacher training, equipment certification and the school board’s procurement requirements. 

With more than 25 years of experience supporting STEM and makerspace education in Canadian schools, the question we hear most often is whether a makerspace earns its budget line. 

We think that question is usually framed backwards, because much of the learning a makerspace supports is already embedded in provincial curricula. Applied Design, Skills and Technologies is compulsory in British Columbia from Kindergarten through Grade 9. In Ontario, students entering Grade 9 in September 2024 or later must complete a Grade 9 or 10 technological education credit. A makerspace is one practical way schools can support this learning, although the physical space itself is not mandated. So the useful question is not whether to teach design and build work, but which tools let you teach it well at your grade level, in your room, within your board’s purchasing rules. 

This page works through that decision in order: the curriculum case, the federal labour data that informs the budget argument, the tools that suit elementary, secondary, and post-secondary programs, and the Canadian safety and procurement rules that decide what you are actually allowed to plug in. 

Key Takeaways 

• British Columbia requires Applied Design, Skills and Technologies from Kindergarten through Grade 9, progressing from simplified design stages in the primary grades to a full seven-stage design process later. 

• Ontario students entering Grade 9 in September 2024 or later need 17 compulsory credits, including one technological education credit. 

• Neither province mandates a physical makerspace; the space is one practical way to deliver learning that is already required. 

• Among Canadian firms that adopted robotics in 2022, 25.2% named difficulty recruiting qualified staff as a significant obstacle. 

• Health Canada requires electrical products to carry a CSA, cUL, or cETL certification mark before they are sold or used. 

• Drones under 250 g need no registration or pilot certificate, but flying within 30 m of an advertised outdoor public event needs a Transport Canada special operations certificate. 

• Start with one curriculum expectation and the room’s ventilation and power, then request a quote for a grade-appropriate starter set. 

What Is a Classroom Makerspace? 

A classroom makerspace is a dedicated area equipped with tools that let students turn an idea into a physical or digital object, then improve it. The equipment varies enormously from school to school; the purpose does not vary at all. 

Two things get confused with it often enough to be worth separating. A public library makerspace is drop-in and community-facing, open to whoever walks through the door. A STEM lab is usually built around a subject, with equipment chosen to support science or computer studies specifically. A classroom makerspace is curriculum-linked and teacher-led, which changes what you buy and how you staff it. 

The tools matter less than the loop they enable. We have walked into schools with excellent equipment sitting unused because nobody designed the teaching around it, and into schools doing remarkable work with cardboard, a cutting tool, and a class set of 3D pens. 

The Design Cycle That Makes It a Makerspace and Not a Storage Room 

We did not invent that loop. British Columbia publishes this design process as curriculum. In the primary grades, students work through simplified Ideating, Making and Sharing competencies. By the upper-elementary and middle grades, the curriculum identifies seven distinct stages: 

• Understanding context. Students “empathize with potential users to find issues and uncover needs and potential design opportunities.” 

• Defining. They pin down the problem and “identify criteria for success and any constraints.” 

• Ideating. They “generate potential ideas and add to others’ ideas.” 

• Prototyping. They “construct a first version of the product or a prototype, as appropriate, making changes to tools, materials, and procedures as needed.” 

• Testing. They try it out and “gather peer and/or user and/or expert feedback and inspiration.” 

• Making. They produce the finished version. 

• Sharing. They demonstrate the result, evaluate it, and reflect on how well the group worked. 

Sharing is the stage schools cut first, and it is the one that converts a build session into learning. When we help plan a space, we ask what that stage will look like before we talk about equipment. If nobody can answer, the tools tend to end up in a cupboard. 

Why Classroom Makerspaces Already Fit Canadian Curriculum 

Canadian education is provincial, so there is no single national requirement to point at. Instead, three provinces have written design, making and coding into their published programs of study, and two tie credits to that learning at the graduation stage. 

This distinction matters in a budget meeting, so it is worth being exact. No province requires a school to build a makerspace. What the provinces require is the learning. The space is a means to that end, and the argument to make internally is that it supports curriculum requirements the school already carries rather than introducing an unrelated initiative. 

Province	Program	Grades	Required or optional
British Columbia	Applied Design, Skills and Technologies (ADST)	K to 9	Required area of learning
British Columbia	ADST 10, 11, or 12	10 to 12	Required in part: four credits of Arts Education and/or ADST to graduate
Ontario	Technological education credit	9 or 10	Required from the 2024/25 Grade 9 cohort onward
Ontario	Coding in mathematics	1 to 8	Required in every grade
Alberta	Career and Technology Foundations (CTF)	5 to 9	Optional
Alberta	Career and Technology Studies (CTS)	10 to 12	Optional senior high courses

British Columbia: Applied Design, Skills and Technologies Is Required From Kindergarten to Grade 9 

The requirement sits in the province’s Required Areas of Study in an Educational Program Order, which lists ADST alongside Mathematics, Science, and the other core subjects for every year from Kindergarten to Grade 9. 

What makes it useful for a purchasing case is that the curriculum names tool categories directly rather than talking about design in the abstract. At Grades 6 and 7, the B.C. Applied Design, Skills and Technologies curriculum covers the “main components of robots: sensors, control systems, and effectors.” By Grade 8 in the same curriculum, computational thinking covers “programming languages, including visual programming in relation to text-based programming and programming modular components,” and drafting includes both “manual and computer-aided drafting techniques” and “virtual creation using CAD.” The ministry even names example robotics platforms, including VEX IQ at Grades 6 and 7, and VEX and VEX IQ at Grade 8. 

Grades 10 to 12 work differently, and this is the part that gets overstated. B.C. graduation requirements call for four credits from a combined pool: “An Arts Education 10, 11, or 12 and/or an Applied Design, Skills, and Technologies 10, 11, or 12.” Arts Education alone can satisfy it. So ADST is genuinely required through Grade 9 and becomes one of two routes after that. 

Ontario: A Technological Education Credit Is Now Required to Graduate 

Ontario made the most consequential change of any province. Students entering Grade 9 from the 2024/25 school year must earn 17 compulsory credits, and for the first time that list includes “1 credit in technological education (Grade 9 or 10).” 

A second requirement sits alongside it and gets far less attention. The compulsory list also includes “1 additional credit from curricula in the following STEM-related group,” and that group covers business studies, computer studies, cooperative education, extra mathematics, extra science, and extra technological education. A student can satisfy both requirements with technological education if they choose to, though science or mathematics will satisfy the second one just as well. 

For a school planning its course sections, that matters. Your technological education demand is at least one credit per student and potentially two, depending on how students fill the STEM slot. Build capacity for the range rather than the minimum. 

The new Grade 9 and 10 offerings include Technology and the Skilled Trades, which the province notes carries mandatory learning on the trades. Ontario counts more than 140 skilled trades, and this is the course designed to put some of them in front of students while course selection still matters. 

Coding sits underneath all of this. Ontario mathematics curriculum carries coding expectations in every grade from 1 to 8, introduced to “reinforce math learning, improve problem solving and develop fluency with technology.” The progression is concrete. Grade 1 students “begin to write code to order a sequence of steps.” By Grade 6 they “use code to solve problems that involve optimization, such as finding the maximum area for a given perimeter.” By Grade 8 they “write code to create a line or curve that falls between the greatest number of data points.” 

Students entering Grade 9 in Ontario have encountered coding expectations throughout the Grades 1 to 8 mathematics curriculum, although the depth of their classroom experience will vary. What a makerspace adds is the point at which that code controls something physical. 

Alberta: Career and Technology Foundations, Grades 5 to 9 

Alberta’s Career and Technology Foundations is an optional program for Grades 5 to 9, organized around five occupational clusters: Business, Communication, Human Services, Resources, and Technology. The program of studies puts it plainly: “CTF is planning, creating, appraising and communicating in response to challenges.” 

The learning outcomes are written in the first person, from the student’s point of view. One reads: “I create products, performances or services in response to challenges.” Alberta also describes the pathway explicitly, noting that CTF programming “prepares grades 5 to 9 students to transition into high school CTS,” the senior Career and Technology Studies curriculum for Grades 10 to 12. 

The Competencies Every Province Agreed On 

For schools outside those three provinces, there is a national reference point. Canada’s ministers of education, working through the Council of Ministers of Education, Canada, articulated six global competencies at their 105th meeting in 2016. 

Four of them map onto makerspace work: 

• Critical thinking and problem solving, which CMEC defines as “addressing complex issues and problems by acquiring, processing, analyzing, and interpreting information to make informed judgments and decisions.” 

• Innovation, creativity, and entrepreneurship, “the ability to turn ideas into action to meet the needs of a community.” 

• Collaboration, involving “the interplay of the cognitive, interpersonal, and intrapersonal competencies necessary to participate effectively and ethically in teams.” 

• Communication, which comes in wherever students present or document what they built. 

CMEC defines those competencies; connecting them to a makerspace is our reasoning, not the ministers’. 

The national results are encouraging on this front. In the PISA 2022 creative thinking assessment, Canadian 15-year-olds scored 38 points out of a possible 60 against an OECD average of 33, with 45% reaching high proficiency compared to 27% across the OECD. The report also notes, quoting the OECD, that this kind of everyday creativity “can be developed through practice and honed through education.” 

Creative problem solving responds to teaching, and Canadian schools are already good at it. A makerspace gives that existing strength somewhere to go in the years when students start choosing courses and, not long after, careers. 

The Skills Students Build in a Makerspace 

Every skill below is named as required or agreed-upon learning by a Canadian education authority. That is a deliberately modest claim, and it is the one we can stand behind: curriculum asks for these skills, and a makerspace is one environment where students can practise them on something real. 

Design Thinking and Prototyping 

Design thinking has become a loose term. In Canadian curriculum it is a specific sequence with specific verbs. 

A student who builds a bridge in a slide deck can defend any claim they like. A student who builds it from cardboard and loads it watches it fail, and then has to work out why. 

That difference is the whole argument for physical tools. The object either works or it does not, and the feedback arrives immediately, without a teacher having to supply it. 

Coding and Computational Thinking 

Coding in a makerspace is different from coding at a screen because the output moves. 

Ontario requires coding in mathematics from Grade 1 through Grade 8, as set out above. British Columbia’s ADST carries computational thinking across the same band, covering “simple algorithms that reflect computational thinking” in Grades 6 and 7, elaborated as sorting, searching, sequence, selection, and repetition. 

When a student writes a loop that turns a robot ninety degrees and the robot turns eighty-seven, they debug for a reason they can see. We have watched students who described themselves as bad at math spend an hour tuning a value because the robot kept missing the line. 

Problem-Solving, Collaboration, and Communication 

These are the skills that survive long after a student forgets which button starts the printer, and in B.C. they are concentrated in one place: the sharing stage that closes the design cycle. 

That competency asks students to demonstrate their product, evaluate it against the criteria they set, and “reflect on their design thinking and processes, and evaluate their ability to work effectively both as individuals and collaboratively in a group, including their ability to share and maintain an efficient co-operative work space.” 

Sharing a bench, returning tools, and leaving a space usable for the next class are assessed learning outcomes in a provincial curriculum. Most schools treat them as classroom management, which is why the stage is first to go. 

The practical consequence is a design decision. Build the space so tidying is quick, storage is obvious, and two groups can work without colliding, and you make an assessed outcome achievable instead of aspirational. 

What the Evidence Does and Does Not Show 

We want to be straight about the limits of the record, because a claim that collapses under a superintendent’s follow-up question is worse than no claim. 

In our review of federal and provincial government sources, last updated in July 2026, we did not identify a Canadian government study showing that makerspaces improve standardized test scores. This does not mean no relevant academic research exists. It means we are not using a government test-score claim as part of the purchasing argument, and any vendor who does should be asked for the citation. 

What is established is narrower and, for a budget case, more useful. The skills are named in Canadian curricula, and a makerspace is one practical environment in which schools can teach them. The major statistics, regulatory claims and curriculum requirements on this page link to their original government or institutional sources. That argument survives scrutiny, which is why we build our proposals on it. 

The Career Case: What Canadian Data Says About Makerspace Skills 

Principals and board buyers who have to justify this spend need something firmer than a claim about engagement. Three federal datasets carry the argument. 

One caution before the numbers, because it shapes how you should use them. Canada does not currently have a general labour shortage. In the first quarter of 2026, Statistics Canada’s quarterly job vacancy data recorded 506,700 vacancies, and roughly three unemployed people for every one of them. Anyone telling you employers cannot find anyone at all is overselling. 

The useful argument is more specific. Certain occupations are projected to run short even while the overall market stays loose, parts of the skilled-trades workforce are facing replacement pressure as the population ages, and the firms adopting the technology students would train on say the people are the hard part. 

Where Canada’s Job Openings Are Between 2024 and 2033 

The federal government’s official model for where work will be is the Canadian Occupational Projection System, or COPS. According to Employment and Social Development Canada’s 2024 to 2033 occupational projections, Canada faces “a total of 8.1 million job openings” over that decade, against “a total of 8.2 million job seekers” entering the labour market across the same period. About 2.6 million of those openings come from economic growth and roughly 5.5 million from replacing workers who leave, mostly retirements. 

The totals nearly match, but the mix of work does not. Three-quarters of projected openings are in occupations that usually call for post-secondary education, or in management. Within that, COPS flags particular occupations as carrying a risk of shortage, concentrated in health, natural and applied sciences, and parts of construction and transportation. 

Several of those occupations sit at the far end of a pathway a school makerspace can start. On the engineering side COPS lists civil engineers, mechanical engineers, electrical and electronics engineers, cybersecurity specialists, and construction estimators. On the trades side it lists carpenters, heavy-duty equipment mechanics, electricians other than industrial and power system, plumbers, and welders and related machine operators. 

Canada’s Skilled-Trades Workforce Is Facing Replacement Pressure 

Statistics Canada’s census study of the Red Seal trades population counted 1,620,680 people employed in those trades, the ones covered by Canada’s interprovincial certification programme, in 2021, “a decrease of 97,940 (-5.7%) from 2016.” Note the scope: this counts people working in those trades, and as Statistics Canada puts it, “does not necessarily mean that these tradespeople hold a Red Seal endorsement or have a certificate of qualification in the trade.” 

Read that decline with a caveat attached, which Statistics Canada supplies itself. The 2021 Census “was conducted in May 2021, just one year after the onset of the COVID-19 pandemic,” while restrictions were easing and employment was recovering unevenly. Statistics Canada warns that “large differences may be recorded because of the varying effects the pandemic had on these sectors and regions.” So the 5.7% figure should not be read as proof of a uniform decline across every skilled trade. 

The age breakdown is the more durable signal. Workers aged 65 and over rose 11.8%, an increase of 8,460. Those aged 15 to 24 fell 12.2%, a decline of 31,050. The 45 to 54 group fell hardest, down 75,290 or 20.2%. Statistics Canada’s own reading stays careful: “This suggests that the rate at which younger workers enter the trades across Canada was slower than the rate at which older workers leave, indicating a declining skilled trades population.” 

Taken together with the COPS retirement projections above, the picture is one of replacement pressure rather than collapse. Ontario’s Technology and the Skilled Trades courses sit against that background, and a makerspace is often where a Grade 9 student first finds out that they like building things. 

What Canadian Employers Say Is Holding Robotics Back 

According to Statistics Canada’s 2022 robotics-adoption study, only 2.0% of Canadian enterprises had adopted robotics technologies. Manufacturing led at 8.4%, with food manufacturing and transportation equipment highest at 11.4% each. Among the firms that did adopt, “approximately one quarter (25.2%) of businesses reported difficulty recruiting qualified staff as a significant obstacle.” Statistics Canada measured fourteen possible obstacles, and that was the highest of them, ahead of low return on investment at 21.4% and lack of employee training at 20.2%. 

The firms that got past it look different from the rest of the economy. Robotics adopters were 2.0% of the business population but accounted for 7.5% of total employment and 11.5% of total revenue, and 77.7% of them were innovative against 42.9% of non-adopters. 

Note carefully who reported that recruiting difficulty. It was the adopters, the firms already running the equipment, not businesses in general. Written that way, the claim holds: among Canadian businesses that adopted robotics, finding qualified staff was the most-cited obstacle. A school robotics program sits upstream of exactly that. 

Makerspace Tools for Elementary Schools 

Those numbers describe where a student might end up. The rest of this page is about where they start. 

Before going band by band, here is the whole progression in one view. Notice that the safety column changes more between bands than the tool column does, which is the part schools tend to underestimate. 

Grade band	Objective	Typical tools	What changes about safety
Elementary	Exposure and confidence	3D pens, VEX 123 and VEX GO, moving to VEX IQ around Grade 6, cutting machines, child-safe saws	Supervision, burn awareness, certified plugs
Secondary	Applied engineering and credentials	3D printers, VEX IQ through VEX V5, classroom drones, laser cutters, UV printers	Ventilation, enclosures, eye protection, drone rules
Post-secondary	Accredited competence and applied research	Production 3D printing, VEX CTE workcells, advanced drone platforms	Dedicated ventilated rooms, formal safety programs

At elementary level nobody is trying to produce technicians. The goal is narrower and harder: making sure a nine-year-old finds out that building things is something they are allowed to be good at. 

That calls for tools that are safe, quick, and forgiving, and that do not make students queue. One machine shared by a class of thirty leaves twenty-nine of them watching. The curriculum anchors are already in place, with Ontario coding from Grade 1, B.C.’s ADST from Kindergarten, and Alberta CTF from Grade 5. 

3D Pens 

A 3D pen is the shortest route from an idea to a three-dimensional object because there is no software step in between. A student draws a shape in the air, it cools, and they find out whether it stands up. 

This maps onto the ADST prototyping competency almost exactly. Build a first version, change the material or the approach, try again. It also solves the queue problem, since a class set means everyone builds at once. 

The safety point is simple and worth saying to students directly. The tip is hot. The Canadian Centre for Occupational Health and Safety lists heat among the hazards of additive manufacturing, alongside emissions, and recommends restricting equipment access to trained users and making appropriate protective equipment available. 

H3: Beginner Robotics 

Robotics at this age teaches the anatomy of a robot before it teaches code. B.C.’s ADST names the parts as sensors, control systems, and effectors, and those are the same three words a senior student reaches for when describing a competition robot. 

Platform choice tracks reading level and fine motor skills more than it tracks age, which is why the VEX range is banded rather than sold as one kit. VEX 123 sits at the youngest end, VEX GO in the middle grades, and VEX IQ from roughly Grade 6, which is the point where B.C.’s curriculum starts naming it. We can walk you through what each one asks of a student before you commit to a band. 

For schools thinking about competition, the Robotics Education and Competition Foundation, which governs the VEX competition programs, places the VEX GO Robotics Competition at elementary level and VEX IQ at elementary and middle school. Our advice is consistent: get the classroom kits working first and treat competition as a decision for next year. 

Digital Cutting Machines 

A digital cutter teaches the workflow every other tool on this page depends on. You make a file, the machine turns the file into an object, and if the file is wrong the object is wrong. 

That is the same conceptual pipeline as CAD to 3D print or CAD to laser, running in two dimensions with cheap materials and a fast turnaround. It maps to ADST drafting content in simplified form, and it earns its place in a shared elementary budget because art, media, and social studies teachers all find uses for it. 

One practical note. Adhesive vinyl, heat-transfer material, and any solvents used with them are consumer chemicals. Follow the supplier’s Safety Data Sheet, same as you would with anything else in a school. 

Child-Safe Cutting Tools 

Cardboard is the best prototyping material in any elementary makerspace. It is free, it is forgiving, and students are not precious about cutting it up. 

The problem has always been the cutting. A utility knife is not appropriate for a Grade 3 classroom and a bandsaw is not appropriate for any elementary classroom. Purpose-built child-safe saws changed that, and they are the reason structural prototyping is now realistic at this age. 

We carry these in our makerspace range alongside cardboard construction systems. We check the age rating, the stated supervision requirements and, for any powered model that plugs into an outlet, the Canadian certification mark before a product goes on our list, and the manufacturer’s documentation goes out with the quote. 

Makerspace Tools for Secondary Schools 

The objective shifts here. Secondary students are building toward credentials, and in Ontario toward a compulsory credit, so the tool set gets deeper rather than broader. 

Fewer machines used properly beats more machines used occasionally. A secondary program feeds into Specialist High Skills Major, the Ontario Youth Apprenticeship Program, and dual credit, and the equipment should be chosen with those destinations in mind. 

3D Printers 

A 3D printer is the closest thing in a school to professional product development, because it forces the full cycle. Model it, slice it, print it, find out the tolerance is wrong, revise, print again. 

Students learn things that only show up in physical manufacturing: how orientation affects strength, why overhangs need support, why the part that fit perfectly on screen does not fit at all. That maps to the ADST drafting competency covering virtual creation using CAD, and to Ontario’s technological education design processes. 

It also connects to Canadian industry. The National Research Council’s Advanced Manufacturing program names additive manufacturing for mass customization and 3D printing of polymers and composites among its Advanced Manufacturing expertise areas. 

Ventilation and enclosure must be assessed before a 3D printer goes into a classroom. We set out the guidance below, and it is worth reading before you choose the room rather than after. 

VEX Robotics and Competition Platforms 

Competition robotics adds what classroom robotics cannot: a deadline, a judge, and another team’s robot on the same field. 

Students take on mechanical design and fabrication, drivetrain and manipulator engineering, sensor integration, and autonomous programming. The team roles and documentation practice come with the format rather than having to be imposed by a teacher. 

The GRSF (Global Robotics Science Foundation) organizes its programs by school level. The VEX V5 Robotics Competition sits at middle and high school. The VEX AI Robotics Competition covers high school and post-secondary.

That last one lands closest to the Statistics Canada robotics figures above. Manufacturing is where Canadian robotics adoption is concentrated, and it is where the recruiting difficulty was reported. 

Educational Drones and the Canadian Rules That Apply 

American classroom drone regulations do not transfer to Canada. General safety practices often do, but the legal requirements do not, and getting that wrong creates real compliance exposure for a school. If you see Part 107, TRUST, or Remote ID mentioned, you are reading United States material and none of it governs a Canadian classroom. 

For a classroom program, most of the practical detail comes down to two things. 

First, weight class. Transport Canada’s drone operation categories and pilot certificates define a microdrone as weighing under 250 g, and state plainly that “pilots of microdrones don’t need to register their drone or get a drone pilot certificate to fly them.” Drones at 250 g and above must be registered and marked, and the pilot must carry a valid certificate. That single threshold is why classroom drones cluster where they do. 

Second, credentials. Transport Canada sets the minimum age at 14 for a Basic drone pilot certificate and 16 for an Advanced one. That puts Basic within reach of a Grade 9 or 10 student and Advanced within reach in the senior grades. Both are real certificates issued by the federal aviation regulator, which very few school activities can offer. 

Microdrone flights still carry obligations. Operators must not fly “in a reckless or negligent manner so as to endanger or be likely to endanger aviation safety or the safety of anyone,” must stay clear of emergency sites, and must not enter restricted airspace without permission. Transport Canada recommends staying below 400 feet and within sight, though for microdrones those are recommendations rather than certificate-backed limits. 

One rule catches schools out regularly. Transport Canada defines an advertised event as “an outdoor event that is advertised to the public, like a concert, festival, market or sporting event,” and states that “if you are flying your drone within 30 m (100 feet) from the event boundaries, you will need to apply for an SFOC-RPAS,” the Special Flight Operations Certificate for Remotely Piloted Aircraft Systems. That applies regardless of drone size. A promoted outdoor school event can fall within this definition, so check it with Transport Canada well before the date. 

We stock CoDrone and related classroom platforms, and we are happy to talk through weight class and certification before you order rather than after. 

Laser Cutters and Engravers 

A laser cutter teaches precision that students cannot fake. The machine executes the file exactly, so a sloppy drawing produces a sloppy part, every time. 

Students pick up real material science along the way: kerf, focal length, the difference between cutting and engraving passes, and which materials must never go into the machine. Flat-pack design for assembly is a genuinely useful engineering skill and it happens naturally here. 

The specification that matters most for a school is enclosure. We cover why below, in the compliance section, and it is the one place we would push back on a purchasing decision made purely on price. 

UV Printers 

UV printing covers the part of design education that classrooms usually miss, which is production. Colour management, substrate preparation, and printing directly onto an object are the difference between a design that exists as a file and a product someone could actually sell. 

Paired with a digital cutter, this becomes the fast iteration layer of a secondary makerspace: signage, decals, apparel, packaging mock-ups, stencils, and prototypes that look finished. 

This is also the most natural bridge to entrepreneurship in the whole tool set. CMEC’s competency on innovation, creativity, and entrepreneurship is defined as turning ideas into action to meet the needs of a community, and Alberta’s CTF Business cluster sits in the same territory. Student-run enterprises tend to start here. 

Makerspace Tools for Colleges and Universities 

Post-secondary changes the driver entirely. The question stops being curriculum coverage and becomes accredited competence, applied research capacity, and service to local industry. 

What Drives the Equipment Decision at This Level 

For engineering programs, the requirement comes from the accrediting body. The Canadian Engineering Accreditation Board’s 2024 accreditation criteria state that “A minimum of 225 AU in engineering design is required,” AU being the accreditation unit the board uses to measure curriculum content, and that “The engineering curriculum must culminate in a significant design experience conducted under the professional responsibility of faculty licensed to practise engineering in Canada.” 

The capstone is an accreditation requirement. That a capstone worth the name needs somewhere to build is our argument rather than CEAB’s, and we would rather flag the difference than blur it. 

Colleges and polytechnics have a second driver. NSERC funds Technology Access Centres at $350,000 CAD per year, or $100,000 CAD per year for colleges and CEGEPs in Quebec, for five years and renewable. These centres exist to let local organizations “take advantage of the college’s expertise, technology and equipment,” and applications are assessed in part on the centre’s plan to incorporate student training as an integral component of its work. That is a professional-grade makerspace with a public mandate attached. 

Advanced 3D Printing, Laser, and UV Systems 

At this level the machines gain multi-material capability, engineering polymers, and tighter tolerances. The safety model changes with it, moving from a classroom enclosure to a dedicated ventilated room, written standard operating procedures, and in the case of lasers an institutional laser-safety program. 

The work changes too. Short-run production for industry clients, jigs and fixtures for a partner’s shop floor, and prototypes that go into a real product cycle are all normal at a Technology Access Centre. 

Drone and Robotics Platforms at Post-Secondary 

At post-secondary, a category of flying opens up that school programs rarely reach. Transport Canada calls it Level 1 Complex operations, and it is what turns drone work from a classroom exercise into commercial-operations training. 

Since 4 November 2025, Transport Canada’s 2025 changes to the drone regulations have permitted what the regulator calls Level 1 Complex operations. These include flying beyond visual line of sight, meaning the aircraft travels further than the pilot can see it. It is what makes large-area survey and infrastructure inspection practical. The requirements are substantial: pilots must be at least 18, pass the exam, complete at least 20 hours of ground school and a flight review, and any organization flying beyond visual line of sight needs an RPAS Operator Certificate. 

Safety, Compliance, and Procurement in a Canadian Makerspace 

Compliance is the part of a makerspace project that causes the most trouble after delivery, and it is the easiest to sort out beforehand. 

One scope note first, because we would rather state it than let you infer it. The guidance from the Canadian Centre for Occupational Health and Safety and the CSA standard below are written for workers. How each province’s health and safety legislation treats students in a school makerspace varies from one jurisdiction to the next, so there is no single national answer to give. Read this section as Canadian safety guidance and sound practice for equipping the room, and confirm the specific legal requirements for your province with the applicable provincial authority. Staff supervising the space are covered by provincial legislation. 

Tool	Main safety or compliance consideration	Primary source
Anything with a plug	CSA, cUL, or cETL certification mark	Health Canada
3D printers	Enclosure and local exhaust ventilation ahead of PPE	CCOHS
Resin 3D printers	Skin protection, solvent handling in post-processing	CCOHS and NIOSH
Laser cutters	Compliance is the manufacturer, importer, or distributor’s duty; Class 3B and 4 are for controlled environments and trained operators	Health Canada, Radiation Emitting Devices Act
UV printers	Shielded curing lamps, eye and skin protection	CCOHS
Eye protection (PPE)	Select personal protective equipment based on the identified hazard; CCOHS lists Class 2D protection for laser radiation	CCOHS, CSA Z94.3
Drones under 250 g	No registration, no certificate; reckless operation still prohibited	Transport Canada
Drones 250 g and over	Registration, marking, and a valid pilot certificate	Transport Canada
Any drone within 30 m of an advertised outdoor public event	Special flight operations certificate (SFOC-RPAS) required, whatever the drone weighs	Transport Canada

Check the Certification Mark Before You Buy 

This is the fastest check on the list and the one most often skipped. 

Health Canada’s electrical product safety guidance is unambiguous: “Electrical products that plug into an electrical outlet must meet Canadian national safety standards and be certified by an accredited certification body.” The guidance for buyers is equally direct. “Always check for certification marks, such as CSA, cUL, or cETL, before purchasing electrical products that plug into an electrical outlet,” and “Do not buy or use electrical products that plug into an electrical outlet without a certification mark.” 

This matters more for makerspaces than for most classroom technology, because printers, engravers, and cutters are frequently bought directly online from outside Canada. Health Canada also warns about counterfeit electrical products and directs buyers to their provincial or territorial electrical safety authority for questions about certification. 

When schools ask us to price a machine they found online, this is the first thing we look at. 

3D Printer Emissions and Ventilation 

Putting a 3D printer in a small room with the door closed is the most common mistake we see. 

CCOHS guidance on additive manufacturing identifies the hazards clearly. Heating raw materials can expose users to “hazardous aerosols and thermal decomposition products such as volatile organic compounds (VOCs) and ultrafine particles (UFPs).” Printing with PLA has been found to emit volatile organic compounds including formaldehyde plus respirable particulates, and ABS emits ultrafine particles and volatile organic compounds as well. 

The status of this guidance is worth understanding before you act on it. CCOHS notes that “because additive manufacturing is a relatively new technology, there may not be established safety requirements for organizations to follow,” and asks employers to follow the manufacturer’s instructions and apply the ALARA principle, keeping exposure “as low as reasonably achievable.” So what follows is a risk-based hierarchy of controls to weigh against your printer, your materials and your expected use, rather than a statutory checklist to tick off. 

The hierarchy CCOHS sets out puts engineering ahead of protective equipment, in this order: 

• Limit higher emitting polymers where you can, which in practice usually means choosing PLA over ABS. 

• Physically isolate the printer using a partial or full enclosure. 

• Use local exhaust ventilation to capture contaminants at the printer itself. 

• Increase passive and active ventilation in the room. 

• Increase distance from the printer while it runs and limit time spent near it. 

• Restrict access to trained users, write standard operating procedures, and maintain the machines as the manufacturer specifies. 

Work down that list rather than jumping to the bottom. A school that buys respirators but leaves the printer open in a sealed room has spent money on the least effective control. 

Resin printers are a different decision, not a variant of the same one. The United States National Institute for Occupational Safety and Health, whose guidance is written specifically for makerspaces and schools, notes that chemicals in the liquid resins used for vat photopolymerization “may cause skin irritation or sensitization,” and that post-processing typically involves a chemical bath, often isopropanol. If you are considering resin, budget for the handling protocol as well as the printer. 

Laser Safety and the Radiation Emitting Devices Act 

Laser products in Canada fall under the Radiation Emitting Devices Act, and there is a detail in it that should shape where you buy. 

Health Canada states that “It’s the responsibility of the manufacturer, importer or distributor to ensure their product complies with the applicable requirements set out in REDA and its regulations.” If a school imports a machine directly, that responsibility travels with the import. 

The classification matters for classroom suitability. Health Canada’s guidance on laser products describes Class 4 lasers as “hazardous to eye or skin when exposed to a direct, reflected or scattered beam,” and says both Class 3B and Class 4 products are “intended for use in controlled environments by trained operators.” That phrase is the whole argument for enclosure. The tube inside a cutting machine is powerful enough to be dangerous in the open; the sealed housing and the interlocks that cut power when you lift the lid are what bring it into a range a school can supervise. 

A related rule sometimes causes alarm, so it is worth reading precisely. Health Canada states that “Class 3B and Class 4 handheld portable lasers are considered a danger to human health or safety. Their import, manufacture, advertising and sale is prohibited under the Canada Consumer Product Safety Act.” The wording is limited to handheld portable products, so on its face it does not reach an enclosed cutting machine. Health Canada does not name laser cutters either way, so treat that as a reading of the wording rather than an exemption Health Canada has granted. What does carry across is the requirement it states next: “a controlled laser safety environment and professional laser safety training are necessary for the safe operation of Class 3B and 4 laser products.” 

Fume extraction is the other half of the job. Laser cutting produces combustion by-products from whatever is being cut. We did not identify a single national laser-specific extraction rule that applies to every school setting, so we treat extraction as part of the broader requirement to control airborne contaminants. Confirm the applicable requirements with your provincial authority and the equipment manufacturer. 

Insist on both of these when you buy. Ask for the compliance documentation against the exact model number, and never take a laser class from a marketing page. 

UV Curing, Eye Protection, and PPE 

CCOHS guidance on ultraviolet radiation lists printing ink polymerizing equipment among workplace sources of ultraviolet radiation. Overexposure to UV is associated with “skin cancer, sunburn, accelerated skin aging, as well as cataracts,” and short exposures can cause photokeratitis, where “the symptoms are pain, discomfort similar to the feeling of sand in the eye and an aversion to bright light.” 

The practical answer is the same as for lasers: an enclosed machine where the curing lamps are shielded by design. CCOHS notes that “shielding is usually easy to design,” which is why enclosed units are the sensible classroom choice. 

For eye protection generally, the Canadian standard is CSA Z94.3 Eye and Face Protectors. CCOHS sets out the selection by hazard, and it is worth handing this to whoever orders your consumables: 

Hazard in the room	Protector classes CCOHS lists
Impact, flying objects, dust and particles	Class 1A spectacles, Class 2A or 2B goggles, Class 5A or 5B hoods, Class 6A or 6D face shields
Optical radiation, moderate reduction needed	Class 1B spectacles, Class 2C goggles, Class 5C hoods, Class 6B face shields
Optical radiation, large reduction needed	Class 3 helmet or Class 4 handshield
Laser radiation, including laser cutting and etching	Class 2D goggles

Protective equipment is a consumable. Budget to replace it, and stock enough that a student is never waiting for a pair. We keep classroom safety supplies alongside the machines for exactly this reason. 

How to Build a Classroom Makerspace, Step by Step 

Here is the sequence we work through when a school asks us to help plan a space. The machines come into it late, and deliberately so. 

Start From a Curriculum Expectation, Not an Equipment List 

Name the published expectation the space will serve before you name a single machine. The Ontario technological education credit. B.C.’s ADST requirement through Grade 9. Alberta CTF. A CEAB capstone. 

Doing this narrows the equipment question to something answerable, and it ties the request to a published curriculum requirement, which makes the budget rationale far easier to explain to a business superintendent. 

Let Ventilation and Power Choose the Room 

A smaller room with the right airflow and enough circuits will outperform a larger room without them, every time. 

CCOHS puts enclosure and local exhaust ventilation above protective equipment in its control hierarchy, which means the room decision comes before the equipment decision, not after. We have been called in to retrofit extraction into rooms chosen for their square footage, and it costs more than choosing correctly at the start. 

Count your outlets too. A bank of printers, a laser, a dust extractor, and thirty charging devices add up faster than people expect. 

Budget for Consumables, PPE, Training, and Maintenance 

The purchase price is only one part of what a makerspace costs. Filament, vinyl, resin, laser consumables, and replacement protective equipment recur every year. CCOHS also calls for maintenance as the manufacturer recommends, which means someone’s time as well as parts. 

A strong opening budget with nothing behind it tends to run out around the time the first consumables do. A smaller starting set with a realistic annual line attached keeps working year after year, and we would sooner quote you that. 

Train the Teacher First 

There is a telling split in the Canadian business data. Among firms that adopted robotics, 42.0% offered training in response to the skills obstacle, and 40.6% took no measures at all. We cannot point you to equivalent figures for schools, because we have not found any. What we can tell you is what we see: the spaces that go quiet are almost always the ones where nobody had time to learn the equipment before it arrived. 

Federal support exists on the education side. CanCode, the federal digital skills program described in more detail below, makes teacher professional development an explicit part of what it funds, and reports “over 525,000 teachers equipped to help students” since 2017. 

We run training and curriculum services for exactly this reason. Build the training into the same plan as the purchase, and schedule it before the machines arrive rather than after. 

Funding and Procurement Paths in Canada 

Federal programs generally fund organizations and programming rather than sending equipment to individual schools, so it is worth being realistic about what they do. 

CanCode received $30 million CAD for its fifth phase, announced on 8 July 2026, aiming to reach 1.1 million students and train 76,000 teachers. Applications come from not-for-profit organizations incorporated in Canada, so a school would typically participate through a funded partner rather than apply directly. 

NSERC’s PromoScience program supports “hands-on informal STEM learning experiences for young Canadians and their educators in Canada,” with grants up to $200,000 CAD per year for three years. Eligible applicants are registered non-profits, post-secondary institutions, and non-federal museums or science centres. 

Provincially, Ontario schools can connect a makerspace to Specialist High Skills Major programs, the Ontario Youth Apprenticeship Program, which requires students to be at least 15 with 14 credits completed, and dual credit programs that count toward both a diploma and a post-secondary credential. 

On the purchasing side, we work the way schools actually buy. Formal quotes, purchase orders, tender documentation and board procurement timelines are routine for us rather than exceptions we have to arrange. 

Building Your Classroom Makerspace With iDESIGN 365 

Most schools we talk to have already decided they want a makerspace. What stops them is not the idea. It is the practical questions this page has worked through: which tools suit their grade range, whether the room can take them, what has to be certified, and how any of it gets through procurement. 

Those are answerable questions, and answering them is the part we do. We have equipped everything from a single classroom kit to a full lab build through our STEM and makerspace solutions, and the projects that succeed are consistently the ones where somebody settled the room and the training before the purchase order went in. 

Tell us your grade range, your class size, and your budget. We will come back with a starting set that fits all three, and say so plainly if we think you should spend less than you planned. Contact our sales team when you are ready. 

 

About the Author 

Andy Fenos is the President and Founder of iDESIGN 365 Ltd., an educational technology company based in Toronto with more than 25 years of experience bringing hands-on coding, robotics, drones, AI, and design into K-12 classrooms across Canada. He also serves as President of the CanSTEAM Foundation, a not-for-profit advancing equitable access to STEAM education, and works closely with partners such as VEX Robotics to connect classroom learning with real-world, competition-based experiences. 

References 

British Columbia Ministry of Education: ADST goals and rationale 

British Columbia Ministry of Education: ADST Grade 6 curriculum 

British Columbia Ministry of Education: ADST Grade 1 curriculum 

British Columbia Ministry of Education: ADST Grade 8 curriculum 

Government of British Columbia: Graduation requirements 

Ontario Ministry of Education: Secondary diploma requirements 

Government of Ontario: Mathematics curriculum Grades 1-8 

Government of Ontario: Skilled trades in schools 

Ontario Ministry of Education: Experiential learning programs 

Alberta Education: Career and Technology Foundations 

Alberta Education: Career and Technology Studies 

Council of Ministers of Education Canada: Global competencies framework 

Council of Ministers of Education Canada: PISA 2022 creative thinking 

Employment and Social Development Canada: Occupational projections 2024-2033 

Statistics Canada: Tradespeople population change 

Statistics Canada: Robotics technologies adoption 

Statistics Canada: Job vacancies first quarter 

Health Canada: Electrical product safety 

Health Canada: Laser products classification 

Health Canada: Radiation Emitting Devices Act 

Canadian Centre for Occupational Health and Safety: Additive manufacturing hazards 

Canadian Centre for Occupational Health and Safety: Ultraviolet radiation 

Canadian Centre for Occupational Health and Safety: Eye and face protectors 

Transport Canada: Drone operation categories 

Transport Canada: Flying drones safely legally 

Transport Canada: Microdrone rules 

Transport Canada: Flying at advertised events 

Transport Canada: 2025 drone regulation changes 

Engineers Canada: Engineering accreditation criteria 

NSERC: Technology Access Centre grants 

NSERC: PromoScience outreach funding 

Innovation Science and Economic Development Canada: CanCode program 

National Research Council Canada: Advanced manufacturing program 

NIOSH: Safe 3D printing guide 

Frequently Asked Questions 

Do we need a dedicated room, or can a makerspace work on a cart? 

A cart is a perfectly good makerspace for 3D pens, cutting machines, and beginner robotics kits, and it carries an advantage a room does not: the makerspace travels to the class instead of the class travelling to it. For an elementary school with no spare space, this is usually the honest answer. 

The moment that stops working is the moment a 3D printer, laser, or UV unit joins the list. Those three need a fixed home for the reasons set out above, and a cart cannot give them one. Several schools we work with run both, a cart for the junior grades and one fixed room for the senior ones. 

How many students can realistically share one 3D printer? 

Fewer than most schools assume. Print times are measured in hours, so a single printer becomes a bottleneck for a class of thirty almost immediately. 

Most secondary programs we work with settle on a small bank of printers with a queue and a booking system, and treat printing as something that happens between classes rather than during them. Elementary programs usually avoid the problem entirely by starting with pens and cutters, where everyone works at once. It depends on your part sizes and how you design the assignment, which is why we ask about the project before recommending a quantity. 

Can we start with one tool and add more later? 

Yes, and in our experience it produces better programs than buying everything at once. 

Each tool teaches a layer of the same workflow. A digital cutter covers file to object in two dimensions, and a 3D pen covers building and testing with no software in the way. A 3D printer then formalizes both, and a laser adds precision and material behaviour on top. Starting at the simple end means the teaching is established before the expensive machine arrives, and the staff running the space have grown into it. 

Staged purchasing also fits how school budgets actually work. We build quotes this way regularly. 

What should a school check before buying makerspace equipment online? 

Work through it in this order, because each step can end the conversation before you waste time on the next one. Certification mark first, for the reasons covered above. Then compliance documentation for that exact model number, not the product line, which a legitimate seller can supply on request. Then whether the seller will issue a formal quote and accept a purchase order. 

That third one is where most online purchases stall, and it catches people by surprise. A good price is no help if your board cannot process the transaction, and overseas sellers are frequently unable to work with a Canadian school purchase order at all. Better to find that out before the requisition than after. For our part, compliance documentation goes out with every quote and board purchase orders are routine. 

Does a makerspace need a teacher with a technology background? 

No, and requiring one is a common reason spaces never get built. 

The teachers who run the best spaces we see are usually the ones most comfortable saying they do not know the answer and working it out alongside students, which is itself the design cycle. What they do need is time to build familiarity before students arrive, a clear set of operating procedures, and someone to call. Subject background matters far less than preparation time. 

How do we handle student work that fails? 

Design it into the assessment rather than treating it as an exception. 

B.C.’s ADST curriculum builds this in through the testing and sharing competencies, which ask students to gather feedback and reflect on their process rather than only on their product. A prototype that fails and gets diagnosed correctly demonstrates more learning than one that works by accident. Schools that grade only the finished object tend to see students hide their failures, which removes exactly the part that was worth teaching.