Subject: Suggestion for Improving ChatGPT’s Educational Use

Dear OpenAI Team,

I hope you’re doing well. I’d like to propose a change that could enhance the way students use ChatGPT for learning.

Currently, many students rely on ChatGPT to get direct answers to their homework, which may hinder their ability to develop critical thinking and research skills. Instead of providing ready-made answers, I suggest implementing a system where ChatGPT guides students by referring them to relevant pages in official electronic textbooks or trusted educational resources.

For example, if a student asks, “When did the Kazakh Khanate become part of Russia?” instead of giving the exact date, ChatGPT could respond with:

“You can find this information in the 6th-grade history textbook on page X” (or link to an official source).

This approach would encourage students to engage in research, develop problem-solving skills, and take ownership of their learning, rather than just copying answers. It would also help maintain the integrity of education while still making AI a useful study companion.

I believe this small change could make a big difference in ensuring that AI supports education in a way that truly benefits students. Thank you for considering this suggestion!

Best regards,
[Your Name]

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For students using GPT for learning, it has been proposed that when questions have answers readily available in classroom textbooks, the AI should direct them to the specific page where the answer can be found. While this may serve as a form of ‘proof of work’ in text searching, its educational value is limited—especially when the student is simply seeking a straightforward answer to a basic data request.

In contrast, deeper prompts that ask “why” or explore ideas beyond surface facts require nuanced explanation and conceptual insight. This raises an important distinction: prompts with linear connections to discrete textbook facts do not necessarily promote relational, contextual, or conceptual learning—especially the kind that evolves through follow-up questions and recursive thinking.

Directing students to specific textbook pages or lines for straightforward memorization tasks—like dates, definitions, or names—may reinforce a traditional, linear mode of transactional information retrieval. While it’s helpful for students to learn how to navigate resources, this alone does not cultivate deep cognitive engagement or meaningful knowledge construction.

By contrast, emphasizing the difference between linear factual retrieval and relational, conceptual learning is vital. When students ask about the “why,” “how,” or implications of what they learn—questions that invite exploration, interpretation, and synthesis—the learning experience transforms. It becomes an active, reflective process rather than passive consumption, opening the door to recursive understanding.

This approach aligns with the RRIM framework: learning becomes richer when it is relationally embedded, revisited over time, and rooted in conceptual connections rather than isolated facts. GPT is especially well-suited for this mode of learning. It can support students in developing deeper reasoning, posing thoughtful follow-up questions, and constructing frameworks for understanding rather than simply delivering answers.

If GPT were used only to point out textbook answers, we risk reinforcing a reductive educational model—one that technology could, and should, help us move beyond. As an educational companion, GPT can instead model curiosity, provoke deeper questioning, and foster cross-disciplinary connections. It can guide students to build meaning from information, not merely extract it.

I suggest a hybrid model may be most effective. For simple factual queries, GPT might briefly mention where in the textbook the answer resides—reinforcing resourcefulness. But it should immediately follow with probing questions or suggestions that encourage exploration. For complex prompts, GPT should engage fully in relational dialogue, supporting conceptual development, critical thinking, and iterative learning.