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You Should Be Teaching AI

MattVidPro·
5 min read

Based on MattVidPro's video on YouTube. If you like this content, support the original creators by watching, liking and subscribing to their content.

TL;DR

AI education is framed as a high-impact role for early adopters who can translate deep prompting experience into clear, transferable lessons.

Briefing

AI education is positioned as the fastest path for early adopters to turn hands-on prompting experience into real-world impact: people who have already spent hundreds of hours with LLMs can package that hard-won intuition into clear lessons that help the rest of the world become productive sooner. The core message is blunt—AI’s power is arriving faster than most people’s understanding, and that gap can be closed by teaching fundamentals, not just sharing prompts.

A three-lesson course structure is used as the proof of concept, built around the idea that tiny wording changes can produce wildly different outputs because prompts manipulate specific “primitives” inside language models. The curriculum starts with core vocabulary and first principles: rather than treating prompting as a bag of tricks, it links prompting to how LLMs work under the hood so learners can reason about why an answer appears in a given scenario. Each lesson follows a repeatable pattern—an explanatory paragraph, a vocabulary section, a one-page chart for quick reference, then hands-on worked examples, short tasks, quizzes to force application, and a wrap-up on common pitfalls.

The first lesson demonstrates the mechanics through a simple example (gravity) and then shows how adding constraints narrows the output distribution. It also emphasizes experimental discipline: only change one variable at a time so learners can identify what caused a shift in results. The lesson ends by warning against vague prompts and by prescribing specificity in format—down to the difference between a “brief story” and a “brief bedtime story.” As the course progresses, the same structure expands into more advanced sampling concepts such as temperature and top P sampling.

Building the course is described as a workflow that blends course-platform tools with multi-step AI prompting. Teachable is used to assemble lesson blocks (text and images, quizzes, open-ended questions) and to generate automatic lesson summaries. For drafting, a multi-role prompt is used with GPT5 thinking to produce rigorous, first-principles explanations plus definitions, connections, and worked examples—while also requesting a reasoning trace so the author can verify the logic. A second prompt then converts the gathered material into an industry-ready course outline, with the outline serving as a “spine” that can be fleshed out into modules.

The author then iterates: copy the AI output into the course, tweak for clarity and textbook-like structure, and add visual proof by screenshotting real LLM runs. When rewriting lesson two into the preferred format, ChatGPT is used to reduce manual work, though some parts (like JSON-heavy lab templates) are toned down to avoid confusing learners. Even course visuals are generated with Gemini 2.5 Flash Image Gen, then edited to remove branding.

Overall, the project frames AI course creation as achievable and scalable: three lessons reportedly take about 6–8 hours with AI assistance, and the resulting materials can be made free to learners. The broader takeaway is that teaching specific AI workflows and prompting techniques can become a stable, even profitable, way to contribute—turning personal expertise into accessible education for others who are only now catching up.

Cornell Notes

The course-building effort argues that early AI adopters should teach prompting fundamentals because small phrasing changes can dramatically alter LLM outputs. The curriculum is designed around first principles: learners study core “primitives,” see worked examples (starting with simple prompts like gravity), and then practice by adding constraints one variable at a time. Short quizzes and a pitfalls section reinforce application and help students avoid vague prompting. The author describes a practical production workflow using Teachable for lesson assembly and AI-assisted drafting in multiple steps, including generating an outline and adding screenshot-based proof of real LLM runs. The result is a repeatable lesson template that can scale beyond a single topic.

Why does the curriculum insist on first principles instead of teaching a list of prompts?

Because prompting behavior changes for reasons tied to how LLMs generate text, not just because of surface-level wording. The course links prompting to the “primitive” being manipulated and to the model’s underlying mechanics, so learners can predict why outputs shift when constraints or formatting change. That baseline understanding is meant to make it easier to transfer prompting fundamentals to everyday problems, rather than memorizing examples.

How does the gravity example teach a core prompting concept?

It starts with a bare prompt and observes that the model can still produce a satisfactory answer without extra instructions. Then it adds a couple of constraints, showing how conditioning narrows the distribution and steers the output. The lesson also stresses experimental control: change only one variable at a time so learners can attribute differences to specific prompt edits.

What role do quizzes and “common pitfalls” play in the lesson design?

Quizzes force knowledge application rather than passive reading, including a mix of easy checks for experienced learners and slightly trickier questions for those new to the technicals. The pitfalls section targets predictable failure modes: vague prompts, changing multiple variables at once (which obscures causality), and mismatched specificity (e.g., requesting a “brief story” versus a “brief bedtime story”).

How is AI used to draft the course content, and why is it done in multiple steps?

First, a carefully crafted prompt (with a multi-role framing and GPT5 thinking) generates rigorous first-principles material, definitions, key connections, and worked examples, with a reasoning trace requested for verification. Next, a second prompt takes that material and produces an industry-ready course outline that acts as the course “spine.” The author then copy-pastes, tweaks for clarity, and adds screenshots from actual LLM runs to provide visual proof.

What constraints shape the final teaching format—especially around examples and labs?

The author avoids formats that could confuse learners, such as heavy JSON code examples and a mini-lab template that doesn’t translate well to an online course experience. Instead, hands-on examples are toned down to reduce cognitive load. Visual screenshots of LLM interactions are used to make the learning experience self-contained without requiring learners to run everything themselves.

Which tools are used for course assembly and visuals, and how are they integrated?

Teachable is used to build the curriculum structure with editable blocks for text/images, quizzes, and open-ended questions, plus an auto-generated summary feature. For visuals, Gemini 2.5 Flash Image Gen (Nano Banana) generates a thumbnail image from an uploaded photo, and Windows editing tools are used to remove the Gemini logo. Screenshotting with a Windows snipping tool captures real LLM runs for inclusion in lessons.

Review Questions

  1. What specific learning benefit is claimed for teaching prompting through first principles and model mechanics rather than through example prompts alone?
  2. How does the course design enforce causal understanding when experimenting with prompts?
  3. Describe the multi-step AI workflow used to generate both detailed lesson content and a higher-level course outline.

Key Points

  1. 1

    AI education is framed as a high-impact role for early adopters who can translate deep prompting experience into clear, transferable lessons.

  2. 2

    Prompting is treated as a mechanics problem: small wording changes can shift outputs because prompts manipulate underlying “primitives” and conditioning effects.

  3. 3

    A repeatable lesson template is used: first-principles explanation, core vocabulary, a one-page reference chart, worked examples, tasks/quizzes, and a pitfalls section.

  4. 4

    Worked examples emphasize controlled experimentation—only change one variable at a time—and use constraints to show how output distributions narrow.

  5. 5

    Course production is built with a multi-step AI workflow: generate verified first-principles material (with reasoning trace), then convert it into an outline “spine,” then iterate with human tweaks.

  6. 6

    Teachable supports modular lesson assembly and auto-summaries, while screenshot-based proof of real LLM runs is used to make examples credible and easy to follow.

  7. 7

    AI-assisted course creation is presented as time-efficient (about 6–8 hours for three lessons) and scalable, including free-to-learner course publishing options.

Highlights

The curriculum’s central claim is that tiny phrasing changes can produce wildly different LLM outputs because prompts manipulate specific internal generation behavior—not because of luck.
The gravity example is used to demonstrate conditioning: start with an unconstrained prompt, then add constraints to narrow the output distribution.
A two-stage AI drafting workflow is used: first produce first-principles content with a reasoning trace for verification, then generate an industry-ready course outline to serve as the course spine.
Visual proof is treated as part of pedagogy: screenshots of actual LLM runs are embedded so learners can understand results without reproducing everything themselves.

Topics

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