CoSN · Education Technology Leadership

Screen Time Is the
Wrong Question

What Is the Screen Asking Students to Practice?

Micah J. Miner, CETL, Ed.S. Director of Innovation & Technology · Beach Park CCSD 3 · CoSN AI Committee
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A parent and school board member recently asked me how many hours her child spends on a Chromebook during the school day. It is a fair question, and one most district technology leaders field regularly.

I gave her a number estimate based on what I could gather from the data reporting. Then I told her what I have come to believe is the more useful question: what cognitive work is her child doing during that time?

CoSN's 2025 Blaschke Report and Screen Time Toolkit is helpful because of its refusal to treat "screen time" as a single thing. Cooper Sved's three-category framing of cell phones and social media, educational technology, and at-home entertainment is the right starting point, and the Screen Time Continuum gives families and teachers a vocabulary they can actually use. The toolkit moves the conversation from quantity toward quality and context, which is exactly where it needs to go.

That shift matters.

But generative AI now extends this matter even further. A student scrolling social media, watching entertainment videos, completing an adaptive math lesson, collaborating in a shared document, and using a chatbot to draft an essay are all technically using screens. They are not having the same experience. They are not practicing the same habits of mind. They are not encountering the same risks. The harder question for CTOs, technology and innovation directors, instructional technology teams, superintendents, and the principals making AI calls in real time is not how much screen time is too much. It is what the screen is asking students to practice.

The harder question is not how much screen time is too much. It is what the screen is asking students to practice.

Generative AI complicates this in a specific way. A student may be using an approved device, inside a district-managed platform, on a sanctioned assignment, while still bypassing the very thinking the task was designed to develop. The minutes still log. The interface looks identical to anyone walking past. Most monitoring tools cannot tell the difference at the level that matters. But cognitively, those students may be doing very different work.

This is the central problem my doctoral research examines and many other amazing leaders and practitioners are also grappling with. Generative AI does not simply add another tool to the EdTech ecosystem. It changes the conditions under which students produce academic work. A student can now generate fluent writing in multiple languages, plausible explanations, polished summaries, code, and arguments without doing the interpretive work that usually produces understanding.

Learning scientists have a name for this. Manu Kapur calls it unproductive success — correct-looking performance without durable learning. The output is right. The schema is not built. In school terms, this means a student can submit something that looks successful while missing the struggle, revision, uncertainty, dialogue, and ownership that the assignment was meant to cultivate.

A student can now generate fluent writing without doing the interpretive work that usually produces understanding. Manu Kapur calls this unproductive success.

This is not only an academic integrity problem. It is a learning design problem.

Districts already know how to write policies that prohibit cheating, block certain tools, approve others, vet vendors, and craft acceptable-use language. Those steps matter. Privacy, security, compliance, accessibility, and procurement are essential responsibilities for any school system. They are also not sufficient. The deeper question is whether our instructional systems preserve the kinds of human learning processes that AI can now make optional.

I use the term pedagogical friction to describe the deliberately designed moments of productive struggle that learning requires. It is the deliberate protection of the thinking, dialogue, authorship, and institutional support that help students build understanding rather than only produce outputs.

For practitioners, pedagogical friction can be understood through four dimensions. Select each to explore the full framework.

In an AI-rich environment, students need opportunities to generate ideas, make predictions, retrieve prior knowledge, attempt explanations, and wrestle with uncertainty before a tool completes the task for them. AI may support learning, but if it enters too early, it can remove the mental effort that builds capacity. The question for instructional designers and teachers alike: where is the thinking happening first?
Learning is not only private cognition. Students develop understanding when they defend claims, listen to critique, revise their reasoning, and respond to questions from teachers and peers. If AI becomes the primary audience, coach, evaluator, and co-writer, students may lose valuable practice in accountable communication. The conference, the discussion, the seminar, the oral defense — these are not relics. They are load-bearing structures.
Students need to experience the responsibility of saying, "This is my claim. This is why I think so. This is the evidence I used. This is where I may be wrong." Generative AI can support reflection, but it can also blur the relationship between the student and the work. When the product becomes detached from the learner's own judgment, schools may get completion without ownership. Ownership is not a soft skill — it is the mechanism by which learning becomes durable.
Individual teachers cannot solve this alone. District policies, assessment practices, professional learning, vendor decisions, device expectations, and community communication all shape whether productive struggle is protected or quietly designed out of learning. The AI conversation cannot live only in classrooms, and it cannot live only in the technology department. It sits between infrastructure and instruction — which is exactly where CTOs, technology directors, and instructional technology coordinators work.

The equity dimension belongs in the same conversation. Not all friction is productive. The goal is not to preserve all difficulty — it is to distinguish what builds capacity from what simply blocks access.

Productive Friction

Difficulty that builds capacity — the cognitive and social work that produces durable understanding.

Struggle Revision Uncertainty Dialogue Ownership Authorship Sense-making

Exclusionary Friction

Barriers that block access without benefit — difficulty that gatekeeps rather than develops.

Language barriers Disability gaps Resource inequity No scaffold No support

For multilingual learners, students with disabilities, and students with limited academic support at home, technology can reduce exclusionary barriers. Text-to-speech, translation support, vocabulary scaffolds, sentence starters, and AI-supported feedback may open doors that were previously closed. The goal is not to preserve all difficulty. The goal is to distinguish productive friction from exclusionary friction.

That distinction reshapes the district question. The useful question is not "Should students use AI?" It is "At what point in the learning process should AI enter, and what human thinking should happen first?"

When AI Enters the Process
Human First — No AI
Draft an original claim
Gather and select evidence
Explain the reasoning
AI enters here
AI-Assisted Revision
Surface counterarguments
Identify unclear transitions
Generate revision questions

The difference between "AI instead of thinking" and "AI after thinking" may become one of the most important instructional design decisions of the next decade.

For district leaders, this shift has practical consequences. Select each priority to mark progress on the leadership agenda.

Acceptable-use guidance addresses learning sequence, not only tool permission — naming when AI may enter and when students need to work without it first.
Professional learning helps teachers redesign around drafts, conferences, and oral explanations — rather than leaving teachers in a defensive posture against cheating.
Assessment systems value process alongside product — because in an AI-rich environment, the finished artifact tells us less than it used to.
Community communication connects screen time to learning quality — so families hear not only how many minutes their child spends on a device, but what their child is doing with those minutes.

The CETL Framework of Essential Skills already names instructional focus, leadership and vision, and ethical and legal judgment as core to our work. Generative AI pulls all three into the same conversation. The question of what cognitive work we protect for students — and what work we are willing to delegate to algorithmic systems — is a policy question, an instructional question, and a values question at once. It is not a question we can leave to vendors, and it is not a question a screen time policy by itself can answer.

The Blaschke Report opened the door to a more honest conversation about technology in our schools. Generative AI is now standing in that doorway. Some screen use is creative. Some is extractive. Some helps students think. Some helps them avoid thinking. Our job as district technology leaders is to keep the friction that learning needs and remove the friction that learning does not.

The screen time debate asks whether students are spending too much time with technology. That question still matters. The harder question for district leadership is whether students are practicing the thinking, dialogue, authorship, and judgment that school is supposed to develop. If they are not, the answer is not simply less technology. It is better design.
MM
Micah J. Miner, CETL, Ed.S.
Director of Innovation and Technology · Beach Park Community Consolidated School District 3, Lake County, Illinois

Micah is the author of AI Goes to School (Times 10 Publications), a doctoral candidate in Curriculum, Advocacy, and Policy at National Louis University, an ISTE Community Leader, and a member of the CoSN AI and EdTech Innovation Committees.

micahminer.com ↗
Originally published on CoSN · Consortium for School Networking · cosn.org