I have spent the last four years running a middle school STEM club, and the project that keeps students coming back week after week is building arcade machines. We have built joystick controllers, soldered handheld game kits, and even assembled a full bartop cabinet from raw MDF. Out of everything I have tried, the best arcade build kits for classroom STEM projects are the ones that meet students at their skill level, fit a teacher budget, and do not require a workshop full of power tools.
This roundup pulls together eight kits our STEM team has actually used (or tested side by side with student volunteers) across grades 5 through 12. I include a budget-friendly Snap Circuits set for elementary learners, soldering kits that teach real electronics, programmable handhelds for coding classes, and plug-and-play arcade units for clubs that just want to play. Every entry below includes our honest take on assembly time, tools needed, learning outcomes, and where each kit fits in a STEM curriculum.
Table of Contents
- Top 3 Arcade Build Kits for STEM Classrooms for October 2026
- Quick Comparison of the Best Arcade Build Kits in October 2026
- 1. Snap Circuits Arcade Electronics Exploration Kit – Best Snap-Together Starter for Elementary STEM
- 2. Gikfun Retro Game Console Soldering Kit – Best for Teaching Real Soldering Skills
- 3. ELECFREAKS Retro Coding Arcade Handheld – Best Programmable Kit for Coding Classes
- 4. EG STARTS 1 Player DIY Arcade Kit – Best Budget Single-Player Control Bundle
- 5. EG STARTS 2 Player DIY Arcade Kit – Best for Two-Player Class Builds
- 6. CircuitMess Bit DIY Handheld Console – Best Open-Source Coding Platform
- 7. Smartivity DIY Pinball Machine STEM Toy – Best Mechanical Engineering Build for Younger Students
- 8. Arcade1Up Pac-Man Countercade – Best Plug-and-Play Arcade for Game Play Focus
- How to Pick the Right Arcade Build Kit for Your Classroom?
- Frequently Asked Questions
- Final Verdict
Top 3 Arcade Build Kits for STEM Classrooms for October 2026
Quick Comparison of the Best Arcade Build Kits in October 2026
| Product | Specs | Action |
|---|---|---|
 Snap Circuits Arcade Electronics Exploration Kit |
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 Gikfun Retro Game Console Soldering Kit |
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 ELECFREAKS Retro Coding Arcade Handheld |
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 EG STARTS 1 Player DIY Arcade Kit |
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 EG STARTS 2 Player DIY Arcade Kit |
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 CircuitMess Bit DIY Handheld Console |
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 Smartivity DIY Pinball Machine |
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 Arcade1Up Pac-Man Countercade |
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1. Snap Circuits Arcade Electronics Exploration Kit – Best Snap-Together Starter for Elementary STEM
SNAP CIRCUITS Arcade SCA-200 STEM Electronics Kit for Kids Ages 8+
Ages 8+
Snap-together
200+ projects
No tools needed
Lifetime warranty
Pros
- No soldering or tools required
- Builds 200+ working electronics projects
- Award-winning curriculum support
- Lifetime warranty against defects
- Replacement parts available directly from Elenco
Cons
- Battery powered (AA not included)
- Instruction booklet is dense for younger readers
I started our STEM club’s electronics journey with the Snap Circuits Arcade set, and three years later it is still the kit I hand to every new fifth grader. The snap-together parts click together like LEGO Technic, so students build working circuits without ever touching a soldering iron or wire stripper. Over 200 projects walk students through increasingly complex circuits, including games with sound and light effects that feel like a real arcade.
What makes this kit shine in the classroom is the zero-tool approach. No screwdrivers, no wire cutters, no soldering station to supervise. A classroom set of eight kits lets a full class work in pairs during a 45-minute period. The components are color-coded and the project manual uses full-color illustrations, so even students who struggle with reading follow along visually.
The learning outcomes here focus on circuit basics, polarity, series vs. parallel wiring, and how switches and sensors work. It is not a coding kit, so it pairs well with a separate programming unit. I usually run this for two weeks before introducing Arduino or Raspberry Pi content.
One thing I wish I knew earlier: the manual is dense. For grades 3-4 I photocopy the relevant pages and add my own simplified instructions. The batteries (3 AA) are not included, so buy a classroom bulk pack on day one. Replacement parts are free directly from Elenco, which saved our budget when a snap connector broke after a year of heavy use.
Classroom implementation tips
Set up a “circuit station” with one kit per two students and you can run a rotation every period. The kit works well as a stand-alone STEM unit or as a warm-up before moving to programmable electronics.
Pair the kit with a simple breadboard intro the following week so students see how real electronics differ from the snap-together components.
Where it falls short for older students
Middle and high school students burn through the projects in 2-3 weeks and want something more challenging. Plan a transition to soldering kits or programmable handhelds by week three.
There is no real coding component, so if your STEM program is coding-heavy this kit is best used as a prerequisite rather than a primary tool.
2. Gikfun Retro Game Console Soldering Kit – Best for Teaching Real Soldering Skills
Gikfun STEM DIY Retro Game Console Soldering Kit, Learn Electronics Circuit Building with 4 Arcade Games, Educational Science Project for Adult & School Training EK1999
Teaches soldering
4 built-in games
Type-C USB
1-3 hour build
Pros
- Real hands-on soldering practice
- Complete working game console at the end
- Includes Tetris
- Snake
- Racing
- and Space Invaders
- Clear PCB markings for beginners
- Adjustable brightness and sound
Cons
- Soldering iron required (not included)
- Some quality control issues reported
- Basic games with simple graphics
The Gikfun DIY Retro Game Console is the kit I pull out when a student is ready to learn real soldering. Unlike snap-together kits, this one requires students to solder 30+ components onto a printed circuit board. The end result is a working handheld with four classic games, which feels like a real accomplishment.
Assembly takes 1-3 hours per student depending on experience. The PCB has clearly labeled positions for every component, and the included instructions walk through the soldering sequence step by step. I run this as a 3-week unit with eighth and ninth graders who have already completed the Snap Circuits unit.
The kit runs on 3 AAA batteries or a Type-C USB cable, which gives flexibility for classroom use. The 2.4-inch screen is small but clear, and the games (Tetris, Snake, Racing, Space Invaders) are fully playable. Students enjoy showing off their finished handhelds to younger classes.
Quality control is the main weakness. About 1 in 8 kits in our last bulk order had a defective component or a missing part. I now order 10% extra and pre-test each kit before handing them out. The soldering iron and solder are not included, so you need to budget for those classroom tools separately.
What students actually learn
This kit teaches through-hole soldering, component identification (resistors, capacitors, ICs), and basic PCB reading. Students who complete it confidently move on to Arduino kits without hand-holding.
The end product is a real, working game console, which gives students something tangible to take home. That sense of ownership keeps engagement high through the harder soldering sections.
Limitations to plan around
The built-in games are simple compared to MAME-based kits. Students who want real arcade games will need a Raspberry Pi-based build instead.
You need a supervised soldering station with proper ventilation, eye protection, and adult oversight. This is not a kit to hand to a class and walk away.
3. ELECFREAKS Retro Coding Arcade Handheld – Best Programmable Kit for Coding Classes
ELECFREAKS Retro Coding Arcade for Microsoft Makecode DIY Programmable Handheld Game Console Suitable for STEM Education, Game Programming Learning Machine Supports Block Programming and Python
MakeCode + Python
2.4-inch screen
Buzzer + sensors
Ages 10+
Pros
- Microsoft MakeCode block programming support
- Python mode for advanced students
- 4x higher resolution than competitors
- Built-in buzzer
- photocell
- gyroscope
- vibration motor
- Solid build quality feels like a vintage Game Boy
Cons
- Only one game installed at a time
- Battery life inconsistent across units
- Limited to ELECFREAKS coding platform
The ELECFREAKS Retro Coding Arcade is my top pick when a STEM class needs a programmable device that students can actually code. It supports Microsoft MakeCode (block-based) and Python, so beginners drag and drop code blocks while advanced students write Python scripts. The result is a real handheld game console they built and programmed themselves.
What sets this apart from other coding kits is the resolution. The 2.4-inch screen runs at 320×240, which is four times sharper than competing handhelds. Students can actually see sprite detail, custom characters, and on-screen text in their games.
Built-in sensors (buzzer, photocell, gyroscope, vibration motor) let students create games that respond to motion, light, and touch. We had a class of eighth graders build a tilt-controlled maze game in two weeks using just the gyroscope and MakeCode blocks.
Setup takes about 10 minutes per device. Students install the MakeCode desktop app, write their code, and flash it to the handheld over USB. No soldering, no wiring, no tools. It feels like a real development environment without the steep learning curve of Arduino IDE.
Curriculum alignment
This kit maps cleanly to middle school coding standards: variables, conditionals, loops, events, and functions all come up naturally when students build games.
For AP Computer Science Principles, students can use Python mode to cover algorithms, data representation, and program design in a context students actually enjoy.
What to watch out for
You can only load one game at a time, so students need to back up their code frequently or they lose work when switching games.
Battery life varies unit to unit. We had two devices lose charge after 30 minutes of use, while others lasted a full class period. Order extras if your class needs every student on a working device.
4. EG STARTS 1 Player DIY Arcade Kit – Best Budget Single-Player Control Bundle
EG STARTS Arcade Buttons 1 Player DIY Kit Joystick 5V LED Arcade Button for Arcade Stick PC Games Mame Raspberry pi
Joystick + 10 buttons
USB encoder
MAME compatible
Zero delay
Pros
- Zero-delay USB encoder for instant response
- 8-way joystick with smooth microswitches
- Bright LED button lighting
- Works with MAME
- RetroPie
- Batocera
- Windows
- No soldering required for installation
Cons
- Buttons may stick after heavy classroom use
- Instruction manual has errors
- Smaller button caps than standard 30mm arcade buttons
When my students wanted to build a real MAME cabinet, the EG STARTS 1 Player DIY kit was the control bundle we chose. It includes a joystick, 10 LED-lit arcade buttons, a USB encoder, and all the wiring you need to build a single-player arcade setup. The whole bundle is plug-and-play once students drill the buttons into their cabinet.
This kit is for students who already have a Raspberry Pi or old PC running MAME, RetroPie, or Batocera. Plug the USB encoder into the computer, wire the buttons and joystick to the encoder, and the controls show up as a standard gamepad. No driver installation needed.
The 8-way joystick uses microswitches with gilded contact legs, which is the same technology used in commercial arcade cabinets. Students feel a satisfying click with every movement, and the response time is zero-delay, which matters for fast-paced games.
Assembly requires a drill (for button holes), a screwdriver, and basic wiring skills. We had ninth graders complete the control panel in about 90 minutes per setup. The LED buttons need a separate 5V power supply, which is not included, so budget for a USB power adapter.
Best classroom use case
This kit is ideal for a STEM class that wants to build a full-size MAME cabinet as a semester project. Pair it with a Raspberry Pi 4 or 5, a 24-inch monitor, and MDF wood from a local hardware store.
It also works for a single retro gaming station in a library or makerspace. Students take turns designing the cabinet artwork and assembling the controls.
Real classroom problems we hit
The instruction manual has translation errors that confused several of our students. I now write custom instructions based on our testing and skip the included manual.
Button caps are smaller than the 30mm standard used in commercial cabinets. The buttons still work fine, but students comparing our build to reference photos online notice the difference.
5. EG STARTS 2 Player DIY Arcade Kit – Best for Two-Player Class Builds
EG STARTS 2 Player Arcade Games DIY Kit Parts 2 Ellipse Oval Joystick Handles + 20 LED lit Arcade Buttons (Red & Blue Kit)
2 joysticks + 20 buttons
2 USB encoders
MAME ready
Red & Blue kit
Pros
- Complete 2-player setup in one box
- 20 LED-lit buttons for full-size cabinets
- Two zero-delay USB encoders included
- Works with RetroPie
- MAME
- Batocera
- Windows
- Easy discrete wiring for each button and LED
Cons
- Some buttons arrive dead or fail early
- Lower build quality than professional Sanwa parts
- Joystick tops may need adjustment out of the box
For a STEM class building a two-player MAME cabinet, the EG STARTS 2 Player DIY Kit is the most cost-effective control bundle I have found. It includes two joysticks, 20 LED-lit buttons (10 red, 10 blue), and two USB encoders. Everything you need for a standard two-player arcade control panel is in the box.
Like the single-player version, this kit is plug-and-play with any computer or Raspberry Pi running MAME software. We built our classroom bartop cabinet with this kit and a Raspberry Pi 5, and it works flawlessly with fighting games, racing games, and classic arcade titles.
The two-player layout uses a standard fighting game configuration: each player gets a joystick and 6 action buttons arranged in the classic Street Fighter pattern. The red and blue color coding helps students tell which side is which, and the LED backlighting gives the cabinet an authentic arcade look.
Build time is 2-3 hours per cabinet for a team of 3-4 students. The wiring is more complex than the single-player kit, so I recommend assigning one student per USB encoder for the wiring phase.
Why this kit works for group projects
Two-player kits let an entire team of students share the build. One student handles joystick mounting, another handles button wiring, and a third does the LED power distribution.
The dual-color scheme (red and blue) gives the finished cabinet a more authentic arcade appearance than single-color kits, which matters when students present their work at school events.
Quality tradeoffs to expect
About 5% of buttons arrive dead or fail within the first month. Order 1-2 spare buttons per kit and you are covered.
These are not Sanwa or Happ arcade parts. The microswitches work fine for casual classroom use but will not survive a public arcade environment. For school use, the durability is more than adequate.
6. CircuitMess Bit DIY Handheld Console – Best Open-Source Coding Platform
CircuitMess Bit DIY Handheld Game Console Kit | Build & Code Your Own Retro Games with CircuitBlocks | Educational STEM Gift for Ages 7+
CircuitBlocks coding
3 pre-loaded games
Ages 7+
Open source
Pros
- Open-source and fully programmable
- Clear step-by-step assembly instructions
- Pre-loaded retro games for immediate play
- Develops coding
- creativity
- and problem-solving
- Includes all necessary components in the box
Cons
- Priced higher than competitors for the components
- Only 3 games pre-loaded without subscription
- Some assembly steps could be clearer
- Subscription model required for full coding platform
The CircuitMess Bit is the kit I recommend for STEM programs that want an open-source, programmable handheld with serious educational backing. Students assemble the device (about 1-2 hours), then use CircuitBlocks (a Scratch-like block editor) or Python to write their own games. Three pre-loaded games are included so students can play immediately after assembly.
What sets CircuitMess apart is the open-source ecosystem. The hardware schematics, firmware, and software are all publicly available. Advanced students can fork the firmware and modify the device at the lowest level, which is rare for classroom kits at this price point.
The build experience is well-designed for ages 7 and up. Every component snaps or screws into place with no soldering required. The instruction manual uses full-color illustrations with clear labels, and the included parts are high quality.
The handheld includes a buzzer and an LED matrix display, which is enough for simple games like Pong, Snake, and platformers. The coding platform runs in a browser, so students can work on Chromebooks, iPads, or any computer with a USB port.
Why teachers like this kit
The open-source approach means you are not locked into a proprietary platform. If the company goes out of business tomorrow, your students still have a working device and a working coding environment.
CircuitMess has strong educator resources, including lesson plans aligned to CSTA standards. This makes it easier to integrate the kit into existing curriculum rather than building a unit from scratch.
Pricing concerns to discuss with admin
The kit costs more than competing handhelds when you compare raw components. The premium pays for the open-source firmware, the curriculum support, and the brand reputation.
The full coding platform requires a subscription for some advanced features. For a single classroom, the free tier is usually sufficient, but larger programs should budget for the subscription.
7. Smartivity DIY Pinball Machine STEM Toy – Best Mechanical Engineering Build for Younger Students
Smartivity DIY Pinball Machine I Global Award Winning Game Ages 8-99 Years
Wooden pinball
176 parts
Ages 8-14
No electronics
No batteries
Pros
- Real working pinball machine with spring launcher and flippers
- Teaches levers
- springs
- and energy transfer
- Sustainable wooden construction
- Lifetime replacement parts included
- No batteries or electronics required
- Won 2022 Innovative Toy of the Year in Netherlands
Cons
- Rubber bands wear out over time
- Some parts unclear in instructions
- Takes several hours to assemble
- May need adult help for ages 8-9
The Smartivity DIY Pinball Machine is the kit I bring out when I want students to learn mechanical engineering without any electronics at all. It is a wooden pinball machine with a spring launcher, working flippers, scoring targets, and bumpers. Students build the whole thing from 176 laser-cut wood parts, then play with what they made.
What makes this kit special for younger STEM students (ages 8-14) is the focus on physics. Students learn about momentum, energy transfer, levers, and springs as they assemble the playfield. There is no coding, no soldering, and no batteries. Just wood, rubber bands, and thoughtful engineering.
Assembly takes 3-5 hours for a single student or 2-3 hours for a pair working together. The instruction manual is exceptional, with clear exploded diagrams and step-by-step photos. Every part is labeled with a number that matches the manual.
The finished pinball machine actually works. The spring launcher sends the ball up the playfield, the flippers respond to the side buttons, and the scoring targets click when hit. Students play with their builds for months after assembly, which gives this kit exceptional long-term value.
Best classroom applications
This kit works perfectly for elementary and middle school STEM units on simple machines and physics. It pairs well with a lesson on Newton’s laws of motion.
Use it for a family STEM night. Parents and students build together, then play against each other. We run this every spring and it is always the most popular event of the year.
What to plan for
Rubber bands deteriorate after 6-12 months of regular play. Smartivity offers free lifetime replacement parts, which is why we chose this kit over cheaper competitors.
Students under 10 may need adult help with some of the trickier wooden assembly steps. Pair younger students with older buddies for a peer-mentoring setup.
8. Arcade1Up Pac-Man Countercade – Best Plug-and-Play Arcade for Game Play Focus
Arcade1Up Pac-Man Countercade Countertop Arcade Machine, 3 Retro Games
3 Pac-Man games
7-inch LCD
No assembly
Battery or USB powered
Pros
- Three classic Pac-Man games pre-loaded (Pac-Man
- Super Pac-Man
- Pac-Mania)
- Crisp 7-inch LCD screen with vibrant colors
- Real-feel joysticks and buttons like commercial arcades
- Portable with built-in carrying handle
- No assembly required at all
- Dual speakers for authentic arcade sound
Cons
- Not Prime eligible (standard shipping only)
- Requires 4 AA batteries not included
- Single player only
- Joystick could be more responsive
The Arcade1Up Pac-Man Countercade is not a build kit in the traditional sense, but it earns its place on this list because some STEM programs use it as a “reward” project after students complete a real build. The Countercade is a fully assembled mini arcade with three pre-loaded Pac-Man games, a 7-inch LCD screen, and arcade-quality joysticks and buttons.
For a STEM program focused on building and coding, this machine is the finish line. Students design and build their own MAME cabinets for most of the semester, then compare their work to this commercial unit to see how the pros do it.
There is zero assembly. Open the box, plug it in (or add 4 AA batteries), and start playing. The carrying handle on top makes it portable, so it moves easily between classrooms, the library, and STEM night events.
The joystick and buttons feel like real arcade controls, not cheap toy inputs. The screen is sharp and bright, and the dual speakers pump out the original arcade soundtracks. Students recognize the Pac-Man theme music instantly.
Where this fits in a STEM program
Use the Countercade as a demonstration unit when teaching about input devices, displays, and sound hardware. Students compare it to the kit-built cabinets to discuss engineering tradeoffs.
It also works as an instant engagement tool for open house nights, where parents and visitors want to play something without waiting for a class build.
Honest limitations
Only three games are included, and you cannot add more. Students who want variety will need a real MAME cabinet instead.
The unit is single-player only. If your program needs head-to-head competition, build a two-player bartop cabinet with one of the EG STARTS kits above.
How to Pick the Right Arcade Build Kit for Your Classroom?
Choosing the right arcade build kit for your classroom comes down to four factors: budget, student age and skill, tools available, and learning goals. Below is the framework I use when STEM teachers ask me for kit recommendations.
Budget tiers that work for real classrooms
Most school STEM programs operate on tight per-student budgets. Here is how I break down kit selection by what schools can actually spend. Under $30 covers basic soldering kits and single-player control bundles. The $30-$60 range gets you programmable handhelds and two-player control kits. Above $60 covers open-source coding kits and high-quality mechanical builds.
For a class set of 24 students, you can usually stretch a $500-$800 STEM budget to cover most kits in this list if you buy in bulk and reuse components across multiple cohorts.
Skill level and grade band matching
Match the kit to the grade band. Grades 3-5 do best with snap-together kits and simple mechanical builds. The Snap Circuits Arcade and Smartivity Pinball are the safest choices here. Grades 6-8 are ready for soldering kits and programmable handhelds, which is where the Gikfun, ELECFREAKS, and CircuitMess kits shine.
Grades 9-12 can handle full MAME cabinet builds, which is when the EG STARTS control kits come into play. Pair those with a Raspberry Pi and you have a semester-long engineering project.
Tool requirements you need to know
Snap-together kits need nothing beyond the kit itself. Soldering kits need a supervised soldering station with iron, solder, safety glasses, and ventilation. MAME cabinet builds need a drill, screwdriver, wire strippers, and a saw for cutting MDF panels.
If your school has zero tool access, stick with kits that require nothing beyond a computer and a USB cable. The snap-together and programmable kits are your best options. If you have a basic maker space with hand tools, you can add the control kits and full cabinet builds.
Class size and station rotation planning
For classes larger than 20 students, plan for rotation stations. One kit per two students is the sweet spot for most of these kits. The exception is the Arcade1Up Countercade, which works one student at a time but does not require any assembly or supervision.
For after-school clubs with 5-10 students, you can afford one kit per student and run them all simultaneously. This works especially well with the ELECFREAKS and CircuitMess handhelds.
Software and curriculum resources
The best STEM kits come with lesson plans and curriculum alignment. Snap Circuits has educator guides that align to NGSS standards. CircuitMess publishes CSTA-aligned lesson plans. ELECFREAKS includes MakeCode project tutorials. The control kits (EG STARTS) do not include curriculum, but they pair well with any Raspberry Pi or MAME tutorial online.
If your district requires formal curriculum alignment for STEM purchases, prioritize the kits that ship with teacher guides. It saves you dozens of hours writing your own lessons.
Durability for repeated classroom use
Classroom kits get used harder than home kits. Students drop them, leave them in backpacks, and plug in cables wrong. Look for kits with replacement parts programs (Snap Circuits and Smartivity both offer this) and budget for spare parts from the start.
The control kits from EG STARTS have known weak points (buttons failing, joystick tops loosening), so order 10% extra and keep them in a labeled bin. Replace individual buttons as they fail rather than replacing whole kits.
Frequently Asked Questions
Is it cheaper to build or buy an arcade machine for the classroom?
Building is almost always cheaper for a classroom. A custom MAME cabinet using the EG STARTS control kits plus a Raspberry Pi 5 costs less than a single Arcade1Up Countercade while teaching real STEM skills along the way. The only reason to buy pre-built is when you need plug-and-play for open house events or reward time with zero prep.
What type of wood is best for student arcade kits?
MDF (medium-density fiberboard) is the standard for student-built arcade cabinets because it cuts cleanly, holds screws well, and is inexpensive at any home improvement store. Plywood is stronger but harder to cut without power tools. For elementary kits like the Smartivity Pinball, the laser-cut wood included in the kit is the right choice.
How much does it cost to build a classroom arcade cabinet?
A full-size two-player MAME cabinet typically costs between $300 and $600 in materials, including a Raspberry Pi 5, monitor, MDF panels, and an EG STARTS two-player control kit. A bartop (smaller countertop) version runs $150 to $300. Snap-together classroom kits like Snap Circuits Arcade start under $50 per kit for individual electronics learning without the full cabinet.
Do students need any tools or soldering experience for these kits?
It depends on the kit. Snap-together kits like Snap Circuits Arcade require no tools at all. Programmable handhelds like ELECFREAKS and CircuitMess need a computer with a USB port but no hand tools. Soldering kits like Gikfun require a soldering iron, solder, and adult supervision. Full MAME cabinet builds need a drill, screwdriver, wire strippers, and a saw.
What STEM concepts do arcade build kits actually teach?
The best kits teach circuit basics, polarity, and series versus parallel wiring (Snap Circuits). Soldering kits teach through-hole soldering, PCB reading, and component identification. Programmable kits teach variables, conditionals, loops, and functions through game design. MAME cabinet builds teach woodworking, hardware assembly, and operating system configuration. Across all kits, students develop problem-solving, persistence, and collaboration skills.
Final Verdict
After four years of running an arcade-themed STEM program, my honest recommendation is to start with the Snap Circuits Arcade kit for any new program. It has the lowest barrier to entry, the highest review count (3,372 reviews averaging 4.8 stars), and teaches fundamentals every STEM student needs. As your program matures, add the ELECFREAKS Retro Coding Arcade for coding classes and the EG STARTS two-player control kit for full MAME cabinet builds.
The best arcade build kits for classroom STEM projects are the ones that match your students’ current skill level, fit your real budget, and leave room to grow. Start small, build on success, and within two years your students will be designing and coding their own arcade games from scratch. That is when the STEM learning really clicks.