STEM education in the classroom, introducing BotBall

STEM education in the classroom, introducing BotBall
By
Mike Oitzman
|
July 12, 2026
Botball provides students inquiry-based experiences to build creativity, critical thinking, and teamwork. | Credit: KISS Institute for Practical Robotics
The story of Botball and the Junior Botball Challenge is defined by a shift in perspective: moving away from a model where adults lead the way, and instead placing the full weight of discovery on the students.
According to Steve Goodgame, executive director of the KISS Institute of Practical Robotics (
KIPR
), the program was born from the idea that the same rigor applied to university-level robotics
education
could be adapted for high schoolers, middle schoolers, and eventually elementary students.
Botball follows ‘level playing field’ philosophy
Botball strictly adheres to the principle of student-led engineering. By providing a standardized kit, the competition ensures that success is determined by the logic of the code and the creativity of the design rather than a school’s budget.
Goodgame emphasized this core value of the program in a conversation with
The Robot Report.
“Everybody in the world gets the same box of parts, so it’s a level playing field,” he said. “You can’t buy better parts, can’t make better parts. You have to use what’s in the box, and adults don’t touch the robots when they come to the competition—adults are out of the pits. It’s what the kids can do using the same materials.”
By removing the “mentorship model” during the heat of competition, students learn true accountability. They aren’t just building a robot; they are managing a project from inception to execution, said Goodgame.
Coding as a second language
While many elementary programs utilize simplified, block-based dragging and dropping, Botball challenges the notion that children can’t handle “real” code. The program introduces text-based languages such as C and Python at an early age, treating them with the same natural ease as learning to speak or write.
“We kicked around the idea: Could kids really do real programming right at an early age? And so we did a little pilot and found out, yeah, of course they can,” noted Goodgame. “So when they’re learning language anyway, it’s actually easier for them.”
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A new ecosystem for STEM
The Junior Botball Challenge (JBC) shifts the focus from head-to-head competition to inquiry-driven problem solving. Instead of one student controlling one robot, JBC uses a specialized controller that allows up to five students to program and run different segments of code on a single robot simultaneously.
As the summer ends and the new school year begins, more information about the upcoming schedule for competition is on the
KIPR website
.
Key aspects of the Botball ecosystem:
Autonomous operation:
Every robot must be 100% autonomous, starting only with a light sensor, and stopping automatically after two minutes.
Integration with the classroom:
The curriculum is designed to be used during the school day, not just as an after-school club.
The virtual simulator:
Using the Botball Academy, students can iterate on their designs and code in a physics-based simulation before ever touching a physical robot. This allows them to “fail fast” and learn without the fear of damaging equipment.
The results: Breaking the 1950s industrial model
Traditional robotics often mimics an old assembly line: One student builds, one student programs, and another manages. Botball aims to break that mold, encouraging every student on the team to be a “polymath” who understands both the mechanics and the software.
This inclusive, classroom-based approach could help bridg the gender gap in
STEM
(science, technology, engineering, and mathematics). Because the program is integrated into the daily school experience, participation among girls jumps from 30% in traditional competitive models to more 55% in JBC classrooms, said the organization.
It isn’t just a competition; it’s a culture of collaborative, open-ended problem solving to prepare kids for a future where they must adapt to and master new tools every day.
Editor’s note:
This article is a part of our ongoing
STEM
education and
workforce
development
series.
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About The Author
Mike Oitzman
Mike Oitzman is a robotics industry veteran and Senior Editor of WTWH Media’s Robotics Group, covering automation for The Robot Report and co-hosting its podcast. With 25+ years of experience, including leadership roles at Adept Technology, Mike founded the Mobile Robot Guide (acquired by WTWH). He is a leading expert on Autonomous Mobile Robots (AMRs), physical AI, and RaaS business models, holding a Systems Engineering degree and an MBA. He can be reached at
[email protected]
.
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