When we talk about making science education better, we often focus on pedagogy — inquiry-based learning, phenomenon-driven instruction, three-dimensional standards. But there’s a deeper question that pedagogy alone can’t answer: better for whom?

BIPOC and low-income students have been historically denied opportunities to develop higher-level thinking and deep subject knowledge. The science classroom — even a well-designed one — can reproduce those inequities if it doesn’t actively work against them. That’s the starting point for culturally responsive and antiracist science teaching, and it’s something we think about constantly at Immersed Games.

What culturally responsive teaching looks like

Culturally responsive-sustaining education starts with a set of assumptions worth stating plainly: all children can learn when given proper opportunities. Racial policies and ideas exist that perpetuate inequality, and educators must actively counteract them. No culture is superior to another — just different, and should be respected. Culture is a critical component of learning, not an obstacle to it.

In practice, this translates to specific actions. Build community intentionally — greet students by name, learn to pronounce every name correctly, celebrate birthdays, display student work. Focus on ways of thinking and doing alongside knowledge of facts. Teach communication, creativity, collaboration, and critical thinking explicitly. Honor students’ home languages and dialects. Give students genuine choice — in what they learn, how they learn it, and how they demonstrate their learning.

Where game-based learning fits

Three-dimensional learning — the kind of instruction that integrates disciplinary ideas, science practices, and crosscutting concepts — is already aligned with culturally responsive principles. When students construct arguments from evidence, collaborate on investigations, and explain their reasoning, they’re doing the kind of higher-order thinking that BIPOC students have been disproportionately denied access to.

Game-based learning makes this accessible at scale. In Tyto, every student investigates real phenomena, collects evidence, and builds arguments — regardless of their teacher’s comfort with inquiry instruction. The game doesn’t water down the science for any group. It provides the same rich, three-dimensional experience to everyone.

Diverse representation without tokenism. The characters in Tyto’s world — the scientists, the professionals, the community members students interact with — reflect the diversity of the real world. Representation in games is more than a checklist; it’s about students seeing people who look like them doing the work of science as a matter of course.

Reducing the role of bias in assessment. When a game assesses what students know, it does so through their actions — the evidence they collect, the arguments they build, the experiments they design. There’s no name on the paper. No handwriting to judge. No implicit bias in grading. The game responds to what you do, not who you are.

Student-centered by design. Culturally responsive teaching asks us to center student experience. Games do this inherently — the student is the protagonist, making choices, directing their own investigation, deciding what to explore next. The learning is literally structured around the student’s agency.

Making inquiry instruction accessible to all teachers. One of the barriers to culturally responsive science teaching is that it requires significant pedagogical expertise. When the pedagogy is built into the platform, every student gets access to it — even in classrooms where the teacher is still developing these skills.

The work ahead

Making a game that is technically equitable — accessible, unbiased, representation-inclusive — is necessary but not sufficient. The harder work is in content design: whose problems are being investigated? Whose communities are being centered? Whose knowledge counts as evidence?

These are questions we’re actively wrestling with as we expand Tyto’s content. The answer isn’t to add a “diversity module” — it’s to ensure that the problems students investigate are authentically connected to diverse communities and contexts, that the scientists and professionals they encounter reflect the real breadth of who does this work, and that students’ own knowledge and experience is valued as part of the learning process.