Game-Based Learning in STEM
Ask most people what game-based learning looks like and they’ll picture a quiz dressed up with points and timers. That’s not what it is. At its best, game-based learning doesn’t put a game on top of science — it makes the game the science. When it’s designed well, a child playing is doing the same cognitive work a scientist does: forming a hypothesis, testing it, and revising their understanding based on what happens. They’re just doing it because the game makes it the obvious thing to do.
What game-based learning actually means
Game-based learning is an instructional approach that uses games as the primary vehicle for developing understanding and building skills. In a well-designed game-based learning environment, the mechanics of the game and the thinking you want students to practise are the same thing. The student isn’t rewarded for answering questions correctly — they’re rewarded for understanding how the system in front of them works.
This is different from edutainment, where educational content is wrapped in a game-like interface to make it more palatable. In edutainment, the game is decorative. In genuine game-based learning, the game is the method.
Game-based learning vs gamification
These two terms are often used interchangeably, but they describe very different things.
Gamification adds game elements — points, badges, leaderboards, streaks — to a non-game activity. A student earns badges for completing worksheets. A reading app awards points per chapter. The underlying activity hasn’t changed; it’s just been incentivised differently.
Game-based learning redesigns the activity itself. The learning doesn’t happen before or after the game. It happens inside the game, through the act of playing. A child experimenting with variables in an Arludo game isn’t completing a task that earns a reward — they’re discovering how a biological system works because the game makes that discovery possible.
Gamification changes the motivation. Game-based learning changes what the student actually does.
Why games work for science learning
Science is fundamentally an experimental process. You observe something, form a prediction about why it works that way, test that prediction, and revise your understanding when the results come back. That process — hypothesis, experiment, interpretation — is exactly what happens when a student engages with a well-designed game.
Games create low-stakes environments for getting things wrong. In a classroom, a wrong answer can feel public and permanent. In a game, a failed prediction is just information. You try again. This is enormously important for science education, where the willingness to test ideas — and to revise them — is the core skill being developed.
Games also provide immediate feedback. A student doesn’t wait until the next test to find out whether their understanding is correct. The game responds to their choices in real time, which means they can adjust their thinking on the spot. That iterative loop — act, observe, adjust — is the basis of both scientific thinking and effective learning.
The discovery-discussion loop
Discovery alone isn’t enough. A student can play for an hour and accumulate a set of intuitions about how something works without ever converting those intuitions into durable, articulable understanding. That conversion requires language — and language requires a conversation.
The most effective use of game-based learning follows what we call the discovery-discussion loop. The game is where discovery happens. Students encounter unexpected outcomes, form intuitions, and generate questions. The discussion afterwards — with a teacher in a classroom or a parent at home — is what turns those discoveries into real comprehension.
This means that teachers and parents aren’t spectators in the game-based learning process. They’re essential to it. The game creates the raw material for a conversation. The conversation is where understanding is built.
What good game-based learning looks like in practice
In an Arludo session, a student might be exploring how a predator-prey relationship changes when environmental conditions shift. They’re making decisions that affect the system’s outcomes, watching what happens, and adjusting their strategy. They’re not being told what the relationship is — they’re discovering it.
A teacher watching the same session can see which students are forming hypotheses confidently and which are struggling to interpret the data. That visibility makes the post-game discussion more targeted. The teacher already knows what the students discovered — and where the misconceptions are.
At home, a parent doesn’t need to know anything about predator-prey dynamics to have a valuable conversation. “What did you figure out?” is enough to start it. The child explains. The explaining is the learning.
What the research shows
The evidence base for game-based learning in STEM is substantial. Studies consistently show that well-designed game-based learning improves conceptual understanding, increases engagement, and builds the kind of transferable scientific thinking that general instruction alone doesn’t produce.
Professor Michael Kasumovic’s research at UNSW Sydney adds a dimension that most game-based learning research doesn’t address: what games do to the way people see themselves. His work demonstrates that competitive and challenging games lead individuals to perceive themselves more positively after performing well. In the context of science, that shift in self-perception has the potential to shape whether a student sees themselves as someone who can do science.
That’s the deeper purpose of game-based STEM learning. Not just better test scores. A student who has discovered something — who has genuinely figured something out — starts to understand that they are the kind of person who can figure things out. That’s a different outcome from completing a worksheet. It’s an identity shift.
About the Author
Professor Michael Kasumovic is an evolutionary biologist at UNSW Sydney and the founder of Arludo. His research explores how social interactions and playing video games alter how people perceive themselves — and how that shapes their behaviour. He has used Arludo in his own university teaching for 10 years and built the platform to turn that research into something kids, teachers, and parents actually want to use together.