Why a Working R&D Firm Teaches Kids to Build: inteRFace R&D and the Next Generation of Engineers

Most kids will spend twelve years being taught about engineering and never once build a thing that actually works. They watch demonstrations, fill in worksheets, memorize the parts of a circuit for a test, and copy a teacher's numbered steps exactly so that nothing surprises them and nothing breaks. Then, at eighteen, someone wonders why they have no feel for how real systems behave. inteRFace R&D runs a kids-STEM program because we think that gap is the entire problem — and because closing it is something a working engineering firm is actually equipped to do.

How engineering is taught vs. how it is practiced

Engineering, as it is usually taught, is a subject. You read about it, you watch a demo, you answer questions about a circuit you never touched, and you follow a procedure engineered to guarantee the light turns on. Engineering, as it is actually practiced, is almost the opposite. You build something, it doesn't work, you figure out why, and you make it better. The distance between those two experiences is enormous, and most students never cross it before university. We dig into that split in more detail in hands-on vs. theory in engineering education; it is the single reason CHIPS exists.

Why a firm that ships hardware runs a school

inteRFace R&D is a Silicon Valley product-development firm. We build real smart products — hardware and software together — for startups and companies, from idea to production. That is not the obvious background for a children's education brand. But it is exactly the point. Our thesis is simple and a little contrarian: the fastest way to grow real engineers is to let kids do real engineering early, with professional tools and methods, guided by people who build for a living. You cannot teach the instinct for how things break from a textbook written by someone who never shipped. You teach it at a workbench.

Born from real R&D

CHIPS was founded in 2023 by Shahaf Baron, a 15+ year R&D engineer, founder of inteRFace R&D, and creator of ArduinoStudio. He started it because he was tired of watching bright kids arrive at engineering the long way around — through years of abstraction that could have been years of building. So CHIPS was born from real R&D: the curriculum uses the same tools, the same methods, and the same mindsets professional engineers use every day, scaled down to a kid's first project instead of a company's tenth. Students don't just learn about technology — they build it. We break down exactly how that curriculum is assembled in inside the CHIPS curriculum, built from real R&D.

The loop: Build → Test → Fix → Improve

Every CHIPS project runs on the same loop that governs real engineering. It is not a lecture followed by a lab. It is a cycle you go around again and again until the thing works:

1. Build — you make something real from the first session, before you have all the theory. The build comes first, not last.
2. Test — you power it on and find out what actually happens, which is rarely what you expected.
3. Fix — you debug it yourself. The mistake is the lesson, not a detour from it.
4. Improve — you make a working thing better, which is where real engineering judgment is grown.

Traditional STEM tries to remove failure from the room. CHIPS puts it at the center, because productive failure — the struggle to make a broken thing work — is where durable intuition comes from. A kid who has debugged their own dead circuit understands current in a way no diagram can teach.

The CHIPS Way vs. traditional STEM

The difference is not a matter of enthusiasm or better slides. It is structural. Four contrasts define what we call the CHIPS Way:

• Build from day one — not watch a demo and take notes.
• Debug and problem-solve independently — not follow a step-by-step script that can't fail.
• Learn through making — not theory first, application maybe, someday.
• Bring your own ideas to life — not one-size-fits-all worksheets everyone finishes at the same time.

Real devices, not diagrams

What makes the loop stick is that the thing at the end is genuinely worth building. CHIPS students don't build abstractions. They build devices they take home and use:

• A Bluetooth (BLE) speaker they pair with their own phone.
• An FM radio that pulls real stations out of the air.
• Walkie-talkies that actually talk to each other across the room.
• A dancing robot and a karaoke machine.
• A robot arm they program to move on command.

None of these is a novelty. Each one forces a real engineering problem — power, signal, timing, control, a connection that has to hold — and a kid who has wrestled that problem into working has learned something no multiple-choice question can measure.

ArduinoStudio: removing the setup tax

The single biggest reason kids never get hardware working is the first hour: installing an IDE, finding a driver, getting the right cable, and hitting an error before anything runs. That setup tax kills momentum before curiosity has a chance. So the founder built ArduinoStudio — a free, AI-powered project creator with no installs and no cables: describe what you want to build, and it generates the Logic, the App, and the Wiring together. Thousands of students worldwide already use it. It lowers the barrier to building real hardware to almost nothing, which means a CHIPS student spends the session building instead of troubleshooting a USB port. Removing friction is not a convenience; it is a pedagogical decision.

The tracks, and who they're for

CHIPS is not one class. It is a progression that meets kids where they are and moves them toward harder, more real work:

• Circuit — electronics fundamentals, hands-on from the start.
• Lightup — first builds, for kids getting their initial taste of making.
• Maker — building real, take-home devices.
• Neural — AI and machine learning brought down to a kid's level.
• Arduino coding — building real hardware through ArduinoStudio.
• Junior, Senior, and Girls tracks, plus summer camps, birthday parties, and robot-arm workshops.

The pipeline problem no one is solving early

Step back from any single classroom and the shape of the problem is clear. The world needs far more hardware, embedded, and product engineers than it is producing — the people who can take a device from idea to something manufacturable. And almost no kid gets to do real building before university. By the time a student is finally handed a real project at nineteen or twenty, the window when intuition grows most easily has largely closed. You cannot cram a feel for physical systems the week before an exam. We make the full case in building the engineering pipeline from early education, but the short version is that the pipeline starts a decade too late, and that is fixable.

Why intuition has to start early

There is a good reason a firm chooses to invest in young kids rather than wait for interns. Learning-by-doing and constructionism — the idea that people build knowledge most durably by building real things — are not fringe theories; they are how anyone who is good at engineering actually got good. The intuition for why a wire is hot, why a signal drops, why the code runs but the device doesn't, is grown through hundreds of small failures on real hardware. Start that in elementary school and it compounds for years. Start it at nineteen and you are fighting the clock. Early is not a nice-to-have. It is the whole leverage.

The real work they're growing toward

The BLE speaker a CHIPS student builds is a small, honest version of the systems inteRFace R&D ships for clients. The difference between a kid's first Bluetooth pairing and a production connected device is enormous — but it is a difference of scale and rigor, not of kind. The same loop that gets a walkie-talkie working eventually gets a product through design, testing, and certification. A curious student can trace the whole arc: from a first working circuit to the discipline of taking a real product to market, like the path through certification we lay out in the hardware startup roadmap to FCC certification. CHIPS is where that arc begins.

Where CHIPS runs today

CHIPS runs in the heart of Silicon Valley, with open classes in San Jose, Sunnyvale, Los Altos, and Foster City. Since 2023 it has taught 300+ students. The location matters: these are the same neighborhoods where the products kids read about are actually designed, which makes the connection between a CHIPS workshop and a working engineering career concrete rather than aspirational.

Frequently Asked Questions

Does my child need coding or electronics experience to start?

No. The Lightup and Circuit tracks are designed for first-timers, and ArduinoStudio removes the setup barrier that usually stops beginners. Kids build from day one; the theory arrives as they need it, not as a prerequisite.

Isn't hands-on building just play, not real learning?

It is the opposite of a shortcut. Debugging a circuit that won't turn on is harder than answering a worksheet question about it — and far more instructive. The struggle to make a real device work is exactly where engineering intuition is built, which is why professional engineers learn the same way.

Why does an R&D firm run a kids' program instead of just hiring engineers later?

Because the shortage of hardware and product engineers won't be solved by recruiting alone. The most durable way to grow engineers is to let kids do real engineering early, guided by people who build for a living. CHIPS is inteRFace R&D investing in the pipeline at the point where it actually bends.

Start your kid at the workbench

If you want your child to build real devices with real tools instead of memorizing facts about them, explore the tracks, camps, and workshops at CHIPS. And if you run a school or a company and want to help close the engineering pipeline where it matters most, partner with inteRFace R&D — the next generation of engineers is built one working circuit at a time.