Computer Science Is for Me: Closing the Participation Gap in K‑8

Most K-8 students are fluent users of technology, but far fewer see themselves as people who can create and direct it. Students swipe, stream, prompt, and game with ease, yet many still view computer science (CS) as something other people do—deciding, “That’s not for me” even before trying to build something themselves.

But, that verdict isn’t a reflection of ability. Research shows CS is no more specialized to particular groups of students than any other subject.¹ The real barriers are access and perception: too few chances to try CS, and a lingering image of the discipline as something "just for coders."

When students rule themselves out, they lose more than a potential career path. CS builds transferable thinking skills (problem-solving, adaptability, collaboration) that serve every learner, in every subject, whatever they go on to do.

This article will explore the current state of CS in schools, consider what a better state should look like, examine how schools can get there, and show how LEGO® Education can support that transition.

Why Computer Science Matters Now

Technology shapes how students learn, create, connect, and (eventually) work. With the rapid rise of AI, students aren't just using technology anymore. They're talking to it, learning from it, and letting it make suggestions and decisions for them. That changing relationship raises the stakes. Students need enough understanding to question what these systems produce, not simply accept them at face value—and that understanding starts with CS.

AI isn't separate from CS. It's part of it. It’s built on the same foundations of data, algorithms, and computational thinking. A generation of AI-literate students begins with strong CS foundations that deliver value beyond the subject itself. Decomposition, pattern recognition, abstraction, and algorithmic thinking underpin learning in math, science, writing, and everyday decision-making.²

Yes, AI might code, but humans are still an essential part of the process. The people who can understand, question, and direct technology—the creators and decision-makers—are the ones who shape what it does. It's our responsibility to ensure all students become creators rather than simply consumers.

The Current State of Computer Science Education in Schools

Momentum around CS education is real: states are investing, policies are expanding, and more schools are bringing CS into their classrooms.⁵ But implementation hasn't kept pace with intention. What CS education actually means still varies dramatically from state to state, district to district, and even grade to grade.

Let's look at the four biggest barriers keeping CS from reaching every student.

1. Uneven Access Leaves Many Students Behind

Whether a student gets a CS education depends too much on factors that have nothing to do with them: which school they attend, where they live, and their school’s resources. Today, just over half of American high schools offer CS, and many of those that go without tend to be under-resourced and low-income communities.⁴

Early grades are where access is thinnest. State policies often prioritize CS in secondary education, leaving elementary CS to local discretion.⁵ So, whether a young student encounters CS at all can come down to a single school's capacity or priorities. And because these are the same years when students' beliefs about CS take shape, missing out early does double damage.

2. Students Decide “CS Isn’t for Me” Before They Ever Start

Stereotypes about who is "good at" computing or “who it’s for” form as early as age six, long before schools formally expose children to CS.⁵ By the time they reach that point, many students have already settled on an answer about whether it's for them—shaped less by experience than by their preconceived notions about the subject.

Since young children do not have exposure to the real thing, the media they consume often shapes their imagination of what CS is. Lone coding geniuses and “computer nerds” are frequent CS-adjacent tropes across TV, film, and books—repelling students who don’t want to be associated with the former or don’t identify with the latter.⁸

Left unchallenged, these beliefs can harden over time, especially for girls who are already underrepresented in the space.⁹

3. Perceptions About Screen Time Hinder Adoption

For many, imagining what CS learning looks like conjures an image of students parked in front of screens. Considering that many educators want less screen time in the classroom, this image can create a barrier for those deciding what gets taught.⁶ A subject that is perceived primarily as screen time can be at a disadvantage, even where access and interest exist.

Current tools can reinforce this perception. More than 60% of teachers and administrators say their CS tools offer no hands-on options.⁶ Until CS shows up as something students do with their hands, plenty of decision-makers will keep filing it under screen time.

4. There Aren’t Enough Prepared CS Teachers

One of the biggest barriers to equitable CS access is a shortage of educators prepared to teach it. A 2024 UTeach Institute report points to significant gaps in the teacher pipeline, including limited opportunities for preservice teachers to develop CS knowledge, too few teacher-education faculty with CS expertise, and challenges recruiting and retaining qualified CS educators.

The same report highlights Texas, a state where CS is required in every public high school, as an example—the state needs roughly 3,000 CS teachers to meet this requirement, but only 60 new CS teaching certificates were issued in recent years.¹⁰

What a Better State of Computer Science Education Should Look Like

A better state of CS reaches more students, earlier, in ways that help them see themselves as creators within the subject, not just consumers. It also requires more qualified, well-prepared teachers who are supported in their roles and throughout their careers.

The goal of making CS accessible to all students is well documented. The challenge is making that vision a reality in K-8 classrooms.⁴

A better state of CS education includes:

1. CS as a Core Part of Every Student’s Education

Every student gets high-quality CS regardless of where they live or which school they attend. Like any core subject, CS receives comparable funding, instructional time, and prioritization so students experience it as a fundamental rather than an elective option.⁴

Schools don’t wait for policy to catch up before taking action. They’re proactive in creating opportunities through professional development, procuring ready-to-run tools and curricula, and integrating CS across subjects.

2. Early, Identity-Building Exposure That Says, “You Belong Here”

Children meet CS in the earliest grades, before the narrow image of “who belongs” in the field can take hold. Early, inclusive exposure gives more students the chance to see themselves as capable creators and narrows gaps that otherwise widen with age.

Early doesn't mean developmentally inappropriate. Lessons in the first years stay playful and concrete, then build toward more sophisticated concepts as students move through K–8.⁷

3. CS as a Creative, Collaborative, Cross-Disciplinary Practice

Students experience CS as a collaborative, creative outlet—a way to make things like games, animations, and robots with classmates.⁷ Collaboration is part of how real CS work happens and, in classroom practice, it helps to break the image of the solitary coder. When hands-on work is part of the mix rather than screens alone, students are markedly more likely to apply what they learn beyond the classroom and to score well in CS.⁶

Cross-disciplinary connection carries it further. When CS runs through science, math, and art, it meets students where their interests already are.

4. Prepared, Connected, and Supported Teachers

CS teachers have the materials, sustained professional development, and community of peers they need, along with the confidence these supports build. Schools don’t hold out for a computer scientist to fill the position. They create the conditions that empower non-specialist teachers to facilitate CS learning and encourage them to remain in that role.

How Do We Get There?

Closing the gap between the current state of CS education and the future we want is less about introducing any single policy and more about creating the conditions that allow CS to take root—access, preparation, relevance, and time.

Here are three ways teachers and decision-makers can create these conditions and start closing the gap:

1. Transition CS from Enrichment to Core Classroom

Enrichment programs, clubs, and one-time experiences can be valuable introductions to CS, but they do not reach every child. If CS is essential preparation for the world students are growing up in, it needs to be part of the core classroom and regular school day, not an opportunity only available to some. This does not necessarily mean adding a new standalone subject. Rather, CS can be integrated into science, math, literacy, and other subjects.

Integration is the most practical, self-starting path schools can take toward making CS a core subject. It presents a low barrier to entry for non-specialist teachers and allows flexible scaling. It’s also one of the more common ways CS is taught in earlier grades.³

However, CS integration can only work if the conditions allow it. Leaders can make CS more accessible by protecting instructional time, supporting classroom teachers, and treating CS as part of every child's education rather than enrichment for a select few.

2. Grow and Sustain the CS Teaching Workforce

Closing the CS teacher gap requires action from schools, districts, and state leaders.

1. School and district leaders: protect and fund PD. Sustained, CS-specific professional development is the support teachers most often ask for and the support they say helps most.³ Protecting time for it inside the regular working day comes first; stipends, release time, and districtwide learning plans with coaching partners turn that time into something usable.
    
2. School and district leaders: retain the teachers they have. Manageable workloads, recognition, and peer community help retain the committed teachers already in place.³
    
3. State decision-makers: grow the pool. Certification and endorsement pathways and funded statewide CS training can help increase the number of educators prepared to teach.³

Growing the CS workforce doesn't mean every teacher needs to be a computer scientist. Preparing non-specialists to teach CS is itself one of the fastest ways to ease the shortage.

3. Connect CS to Real-World Context and Give Students Agency

Students engage with CS when they can see it in their own lives, and that relevance is built over time rather than added on for a single lesson. Teachers build it by anchoring CS in tangible problems and connections to the subjects and interests students already care about, so lesson content makes sense beyond the classroom.⁷ It's also the practical answer to the screen-time worry: when CS is about solving a real problem or building a real thing, the work moves off the screen and into making.

Giving students real choice over what they create can strengthen this connection. It ties learning to their own experiences and identities and supports the shift from "taking CS" to "creating with CS." A student who has built something meaningful to them has a hard time believing CS isn't for them.

Where LEGO® Education Fits In

LEGO® Education supports the future of CS by bringing it to life in the classroom through hands-on learning that goes beyond screens. Designed for K-8 learners, our solutions help schools and teachers deliver age-appropriate lessons where students build, explore, and learn together—making CS tangible and meaningful. Our goal is to help every student feel confident in CS and see themselves as creators of technology.

LEGO® Education solutions support:

1. Empowering Teachers - No CS Background Required

LEGO® Education’s solutions are designed to meet teachers where they are, providing intuitive lessons that reduce preparation time and flex to any experience level. Whether a teacher is brand new to CS or a seasoned educator, they have the tools and resources needed to deliver impactful, relevant, and engaging lessons right out of the box.

2. Intentional Technology Use for Impactful CS Learning

Technology is most powerful when it is used with purpose. Our CS learning experiences combine technology with hands-on, collaborative, and student-led learning, giving students opportunities to build, code, test, problem-solve, and iterate together. Technology becomes a tool for creating and thinking, helping students develop deeper understanding, confidence, and collaboration skills.

3. Meaningful and Relevant - So Every Student Says “CS Is for Me”

LEGO® Education’s classroom solutions connect CS to students’ lives through meaningful, real-world challenges. By meeting students where they are and giving every learner opportunities to create and experiment, they help more children see themselves as capable creators of technology who can confidently say, “CS is for me.”

What Computer Science Education Makes Possible

CS has become fundamental to modern life. As AI development accelerates, so too does the case for acting now. Every student deserves the understanding to question and direct the technology shaping their world, and that understanding is built in classrooms, starting in the earliest grades.

Getting there doesn't require waiting for mandates. It means treating CS as core learning, supporting the teachers who bring it to life, and connecting it to what students care about so today's patchwork becomes consistent access for every student.

When we do that, we can prepare a generation that doesn't just use technology, but questions it, shapes it, and directs it—a generation where every student can say, "CS is for me."