What Happens When You Put a Telescope Kit in a School

[PHOTO: Wide shot of a table covered in hundreds of parts, with a student looking at them — Bryan's own photo]

Ten Telescopes creates open source telescopes that students build from a kit. Hand tools, 3D printing, project management, optics — it's all part of a single build, and it all happens in a classroom.

What building one actually takes

A working telescope is a precision optical instrument. When a team of students builds one from a kit, calibrates it, and points it at something 400 light years away — that's the result of a lot of work. That work is the point of why we started Ten Telescopes.

If a school has access to a 3D printer, students can print many of the parts themselves — which saves money, and opens up a whole layer of decisions that wouldn't otherwise exist. What material? ABS and ASA give you better friction properties for the moving parts, but they off-gas during printing. Does the printer have a carbon filter? Can you circulate the air in the room? If not, PLA is the safer call — and that's fine, but it's a different telescope, and students should know why.

That's not a trivial question for a grade 10 student to work through. It's also not that different from the questions an engineer asks on their first week at a job.

Once printing starts, organization becomes critical. There are hundreds of parts. Some look identical and aren't. Things get printed in batches over days or weeks. Students have to assess each part — geometry, layer adhesion, dimensional accuracy — before it goes into the build. A part that looked fine on the print bed can fail during assembly. You find out when it matters.

[PHOTO: Student holding a printed part up to the light, inspecting geometry and layer adhesion — Bryan's own photo]

The team has to figure itself out too. Who is good at what? Who should run the print queue — and make the call on what colour to print each part in? Who does quality checks, assessing geometry and layer adhesion before anything goes into the build? Who monitors inventory and tracks what's been completed, what's in progress, and what's still ahead?

Some of that work runs in parallel. Someone has to keep track of threads that are moving at the same time and flag when they're about to collide.

The build comes with instructions. But there's a lot the instructions don't cover — judgment calls, coordination, figuring out who should be doing what at any given moment. That's where a lot of the real learning happens.

There's outreach throughout. Getting a kit into a school sometimes means going out and making the case for it first — at community events, star parties, wherever people are willing to stop and listen.

When the scope is finished, someone has to calibrate and collimate it. That's not a ceremony. It's a technical process, and it's how you find out whether everything that came before it actually worked.

Then students can throw their own star party and invite the public to see what they built. Some teams keep that going — sharing what they've learned, bringing more people into the hobby, building something that outlasts the class. That kind of ongoing community presence is something we see in projects like the Young Galileos program, and it's one of the better things that can come out of a build like this.

And then there's the curriculum that's baked in. Optics, light, focal length, how a mirror gathers photons from 400 light years away and brings them to a focus you can hold in your hand. That's not abstract physics. It's physics you built and tested and — eventually — pointed at something.

The talent pipeline problem, honestly stated

Ontario tech companies are not short on graduates. They are short on people who can build things, troubleshoot things, and work with their hands as comfortably as they work with a screen.

The trades gap gets talked about. The gap in practical problem-solving inside engineering and tech roles gets talked about less. But it's real, and the people closest to it — hiring managers and engineering leads — know it.

A classroom full of students who have built a working optical instrument from scratch are not the same as a classroom full of students who have read about optics. One group has done it. They made decisions that had consequences. They caught their own mistakes. They reported their progress to someone who asked hard questions. That shows up years later, when those students are sitting across a table from you.

A sponsorship from your company puts that experience in front of 20–30 students per school year. Over a three-year partnership, that's roughly 60–90 students in your region who have built something real and know your name from the day they did it.

[PHOTO: Two or three students around a partially assembled scope, mid-discussion, one pointing at a component — Bryan's own photo]

If a student or teacher brought you here

Some schools can fund a kit through their department budget. Many can't. When that's the case, students and teachers go looking — grants, local businesses, community organizations, anyone who might see the value in what they're trying to do.

If you're reading this because someone asked you a question you weren't expecting… that's worth pausing on. A student who identified your company as a potential partner, made contact, and explained what they're building didn't just find your email address. They assessed the fit, made an argument, and asked for something. That's the program working before the kit even arrives.

If you're a teacher thinking through how this works: the fundraising process is part of it. It's uncomfortable, and it teaches something that a classroom exercise can't.

Why open source matters here

The telescope designs are fully open source. Any teacher, any school board, any company running its own STEM program can access the files, adapt them, and build on them. No licensing fee, no vendor dependency, no expiry date.

For a sponsor, that's a better story than it might sound. You're not funding a product. You're funding a capability that lives in the school permanently. The designs are there next year and the year after, whether or not Ten Telescopes is involved. The curriculum stays. The skills stay. The equipment stays.

That's what a genuine investment looks like.

What sponsorship looks like

A single telescope kit costs CA$1,200. That covers all the materials for one complete build — enough for a full class project over a semester.

A sponsor can fund one kit for one school, or fund kits across multiple schools in a region they care about. We work directly with teachers to fit the build into existing curriculum, so it's not an add-on. It's the class.

[PHOTO: Student at the eyepiece during collimation, focused and deliberate — Bryan's own photo]

If you're a company with operations or hiring in Ontario, and you care about the quality of STEM students coming through the regional pipeline, this is a direct way to affect that. Not through a scholarship that reaches one person. Through a project that runs in a school every year and touches every student in the room.

Interested in sponsoring a kit? Reach out at admin@tentelescopes.com or visit tentelescopes.com. Happy to talk through what a partnership could look like for your company.