這是一組四格連續插畫,畫面依序呈現一名人類在書桌前緊繃地操作電腦、試圖與一個冷靜而高速運作的 AI 對手競賽;接著轉為多位創業者站在正在崩解、熄燈的城市與齒輪資料洪流前,象徵曾經依附 AI 能力的新創服務在快速變化中倒下;第三格中,一個人獨自站在大量漂浮的工具與介面符號之間,沒有操作任何系統,而是在思考自身的位置,凸顯判斷與感受而非技巧本身;最後一格則是一位父親與一名正值大學年齡的女兒站在分岔路口前,一條道路佈滿工具與既定捷徑,另一條通往未知但開闊的未來,父親只是陪伴在側,畫面傳達在 AI 時代中,教育真正關乎的是陪人站穩、保有人類不可被取代的感受與選擇能力。

AI Education Beyond Skills|7 Judgment Foundations

AI Education Beyond Skills|Judgment, feeling, and semantic decision foundations
AI education should build judgment, feeling, verification, and responsibility before it accelerates tool use.
Core Answer: AI education should not stop at teaching students to operate tools, write prompts, or chase the newest models — it must first preserve the student’s position as a person who can feel, judge, ask questions, and take responsibility. Skills depreciate quickly and can be automated, but the ability to judge whether a problem is worth solving, whether a result is meaningful, and why a tool is being used at all is far harder to replace. The real risk is not teaching AI itself, but treating it only as operational skill, leaving students with a fast-expiring workflow rather than a durable capacity for understanding and judgment.

This essay is part of the AI Semantic Engineering series. This piece is part of an ongoing observation of judgment, feeling, and human position in AI-era education, offered for understanding and reference only.

AI-era education, in this framing, is the practice of teaching AI tools without letting tool proficiency substitute for the core of education: a student’s capacity to feel, judge, question, and take responsibility — the position that determines what remains valuable once tools, models, and workflows change.

The core answer of this essay is this: AI education should not stop at teaching students how to operate tools, write better prompts, or chase the latest model updates. It should first preserve the student’s position as a person who can feel, judge, ask questions, and take responsibility.

Tools will change. Skills will be automated. Models will keep improving. But the ability to judge whether a problem is worth solving, whether a result is meaningful, and why one is using a tool in the first place is far harder to replace.

This does not mean that AI should not be taught. It also does not mean that students should avoid tools. AI has already become part of our knowledge environment and work environment. Education cannot pretend that it does not exist.

The real problem is different. If AI education treats AI only as a set of operational skills, then students may be learning a rapidly depreciating workflow rather than a durable capacity. They may be able to produce something complete in the short term, but still lack the ability to understand why they are producing it, when the result is valid, and what remains when the tool changes.

That is the question I must face before I begin teaching AI.

Education is not the act of handing students the newest tool. It is not asking them to compete with machines in speed, format, and output volume — the very areas where machines are strongest. What education should preserve is the human position of the student: the ability to feel, understand, judge, express, and take responsibility for one’s choices.

AI Education Beyond Skills|7 Foundations Before Tool Use

AI Education Beyond Skills connects AI education judgment, AI in higher education, generative AI education, AI and judgment, and semantic decision infrastructure through seven foundations that preserve human feeling and responsibility.

I recently saw a video of a musician teaching two children. He did not begin by correcting their fingering. He did not rush to fix rhythm or technique. Instead, he stopped and asked a question that carried unusual weight:

“Are we having a piano lesson, or are we having a music lesson?”

It sounded almost like a joke. But in that question, he cut open one of education’s most common misunderstandings: we often mistake technique for education itself.

The first child was a nine-year-old boy. His parents had chosen for him a 1990s love song, A Thousand Reasons to Be Sad. He tried hard to play it. He tried hard to make the melody sound right. He even tried to make his expression look emotional.

But that emotion was not his. How could a nine-year-old child truly carry a thousand reasons to be sad?

What he played was not exactly wrong. It was more like compliance. He was carrying an adult expectation on his own body, trying to complete an expression that looked mature but did not belong to him.

The teacher did not tell him that he had played it incorrectly. He did not ask him to imitate the original song more closely. Instead, he did something much harder. He brought the music back into a world the child could understand. He first helped the boy find the feeling he wanted to express, then slowly added back melody, chords, rhythm, and the coordination of both hands.

In the end, the song became the boy’s own version. The child began to smile, because he was no longer merely imitating. He had finally played something that came from his own feeling.

The second child was a young girl. The teacher asked her: “What does sunrise feel like? What about sunset?” He did not give her a standard answer. He guided her to speak from the images inside her own mind.

She slowly described sunset as a little sad, sunrise as warmer. If one were walking at sunrise, she said, the rhythm might need to be slower and softer. What she learned in that moment was not merely technique. She learned how to translate an inner feeling into something that could be heard.

The teacher finally said:

“I am not teaching you technique. I am teaching you how to feel music.”

That sentence struck me — not because it was romantic, but because it was extremely realistic.

If composition were only mathematical structure, chord formulas, and sectional arrangement, computers and AI could already do it faster and more consistently than humans. In seconds, they can generate hundreds of structurally complete, emotionally labeled, and musically reasonable works.

So should we ask children to spend ten years training for a race they are structurally destined to lose?

If education is reduced to technique, it may become efficient. But it will also lose meaning very quickly. Once a technique can be standardized, it will be automated. Once an operation can be broken into steps, it will be proceduralized. Once output is reduced to format and volume, machines will reproduce it.

That music lesson reminded me that real education does not remove technique. It refuses to make technique the endpoint. Technique can exist. But it must serve something deeper: feeling, judgment, and the question, “Why do I want to express it this way?”

Before I Teach AI, I Must First Answer Where Education Places the Student

Because of that video, I found myself returning to a more basic question: when I talk about AI and education, what am I really talking about?

I am not someone who has never encountered institutional frameworks. I have studied formal materials related to AI, ethics, and law within the United Nations system. I have completed related remote education and training programs, and I have obtained Google certifications related to AI education and practice.

I understand why these frameworks exist. I also understand the kinds of problems they are designed to address.

But I also need to state this clearly: I have not yet formally taught an AI-related course within a university system.

Precisely because of that, I cannot allow myself to mistake fashionable tool instruction for education — only to discover after standing in front of students that I am merely teaching something that will soon expire, and something AI itself may soon do better.

So this essay is not about how I teach AI. It is about what I must understand before I teach AI: what education should truly teach, rather than what looks most advanced, most attractive, or easiest to evaluate.

For me, this is not merely a question of course design. It is not merely a content strategy issue. There is another identity I cannot set aside: my daughter is currently in university.

That means I cannot discuss education only as a content designer or as an AI semantic engineering practitioner. I must ask a much more concrete question:

If my own daughter were sitting in that classroom, what would I want her to learn? A tool operation that will fail after the next interface update? A workflow that looks advanced but may only survive one short cycle? Or a capacity for understanding, judgment, and expression that can travel with her through a decade of change?

This is not a problem that can be solved by simply updating a syllabus. But before I truly begin teaching AI, it is the starting point I must answer.

When the System Rewards the Teacher, Education May Already Be Moving Away from the Student

If I am honest with myself, I cannot avoid a sharper and more uncomfortable question.

In the current system, the design of a course does not happen in a vacuum. What gets taught is shaped by evaluation, promotion, grant applications, conference presentation, and the packaging of interdisciplinary teaching. These institutional indicators deeply influence what a teacher chooses to teach.

If I place “what benefits me” as the first priority, course design naturally moves in a certain direction: the topic should sound new, the vocabulary should sound cutting-edge, the structure should be presentable, and ideally it should align with international trends, policy language, and research themes.

AI fits all of these conditions almost perfectly. Discussing AI principles, model architecture, large language models, generative AI, AI ethics, and AI governance can look academic, reasonable, and deep. Such content fits easily into syllabi. It can also be packaged as forward-looking research or interdisciplinary teaching.

But if I set the institution aside for a moment and ask a simpler, harsher question, the situation becomes less comfortable: what long-term help does this actually give students?

The answer is not automatically positive. AI models, tools, interfaces, and workflows change far faster than traditional course cycles. Six months or one year later, an operation that is treated today as essential may have already been replaced by a new interface, an automated process, or a platform-level feature.

What students remember may be a set of expired terms, not a transferable capacity.

This creates a contradiction. For the institution, such a course may appear successful. For students, it may only be a learning experience that works briefly but does not accumulate into long-term ability.

If I know this and still choose to place institutional advantage ahead of students, then I am using students’ time to complete a design that is reasonable for me but potentially self-serving. That is the line I cannot cross lightly before I begin teaching AI.

The Time-Scale Mismatch in AI Education: Institutional Speed Cannot Keep Up with Tool Speed

Even if we set institutional incentives aside, AI education still faces a structural problem that cannot be ignored: the time scale of education and the speed of AI tools are already misaligned.

Education operates in semesters, academic years, syllabi, and approval procedures. A course may take time to be imagined, reviewed, approved, and finally taught. Even when a teacher tries hard to update the material, once a course enters an institutional structure, it is fixed to a particular moment of understanding.

AI does not move at that rhythm. Model capabilities, tool interfaces, platform strategies, and workflows can change within months. Sometimes, an operation considered important today is replaced after the next model update or interface redesign.

This is not simply a matter of lazy teachers or unmotivated students. The rhythms themselves are incompatible.

If education tries to solve this mismatch by constantly updating syllabi to chase the newest tool, the result may be predictable: the syllabus is always late, and students are always learning a version that is already beginning to expire.

This problem has already appeared repeatedly in the market. Over the past few years, many new services have been built on the capabilities of AI at a particular moment. These companies are often faster than schools, closer to users, and more motivated to follow the newest tools.

Even so, changes in technology paths, platform policies, model capabilities, and user needs can quickly rewrite a service model that once looked valid. A function that required an external tool yesterday may be absorbed into a major platform today. A workflow that once required a separate product may become a basic model feature.

This reminds us of something important: if even market-facing services must accept that the AI environment can reorganize rapidly, education should not assume that chasing the latest tool is enough to create long-term value.

The point is not that AI startups should not exist. Nor is it that students do not need to understand market change. The point is this: if education trains students to become skilled users of one generation of tools, then it places students in a fragile position. They are not learning how to face change. They are learning how to adapt to a version that may soon change.

This is the deepest time-scale mismatch in AI education. Education is slow. AI tools are fast. Being slow is not necessarily wrong. The real problem is that slow education, when it aims only at fast-changing tools, will always fall behind.

But if slow education aims at deeper capacities — understanding, judgment, questioning, expression, and responsibility — then it may preserve a position that is not easily swallowed by tool updates.

Skills Should Be Taught, but They Should Not Be Mistaken for the Core of Education

So the question is not whether AI education should teach tools. Of course it should.

Students need to know how tools work. They need to understand how AI changes writing, research, design, data processing, knowledge organization, and workflows. Refusing to teach tools would only disconnect students from reality.

But tools can be an entry point. They cannot be the destination. Skills can be taught. But they must not be mistaken for the core of education.

That distinction matters.

If an AI course only teaches students how to write prompts, organize outputs, apply templates, and produce something that looks complete, it may be useful in the short term. It may also be easy to evaluate. Students can submit assignments. Teachers can see visible results. Institutions can quickly recognize the course’s apparent effectiveness.

But that kind of effectiveness may be short-lived. If a workflow can be broken into steps, it will be automated. If an operation can be taught as a technique, it will be built into the system. If a skill can be standardized, it will be absorbed by models.

In an AI environment, skill proficiency itself is depreciating rapidly. This is not because skills have no value. It is because once a skill becomes repeatable, describable, and assessable, it becomes one of the easiest parts for systems to take over.

So the real question is not: “Can students use this tool?”

The more important questions are: do students know why they are using this tool? Can they judge whether this problem is worth solving with AI? Can they see where an AI-generated result is valid, and where it is not? Can they reorient themselves when the tool fails, the platform changes, or the model evolves?

These are the truly difficult parts of education. They are not as easy to display as tool instruction. They are not as easy to grade as template-based outputs. They develop slowly, respond slowly, and resist being packaged into impressive short-term results.

But precisely for that reason, they are closer to the core of education. Skills can be replaced. Tools can be updated. Workflows can be reorganized. But whether a person can understand context, ask a question, judge a result, and take responsibility for a choice does not become obsolete simply because an interface changes.

If AI education trains only skills, it trains students to become more efficient executors. But what AI is best at replacing is clearly defined execution. So the real task is not to make students compete with AI in the areas AI already dominates: speed, format, and consistency. The real task is to help students return to the position that AI cannot occupy for them. That position is judgment.

Why That Music Lesson Had Already Explained the Problem of AI Education

At this point, if we return to that music lesson, the issue becomes quite clear.

What the teacher truly did was not reject technique. He refused to make technique the endpoint. Technique was present, but it remained a tool. It served something deeper: feeling, judgment, and the question, “Why do I want to express it this way?”

When the nine-year-old boy played A Thousand Reasons to Be Sad, the problem was not that the melody was wrong. It was not that he lacked effort. The real problem was that the emotion carried by the song did not belong to him.

If the teacher had simply asked him to play it more like the original, the child would have learned a dangerous ability: to use feelings that were not his own in order to produce a result that looked correct.

This is very close to the problem in much of today’s AI education.

Students can use AI to generate an essay that looks complete. They can produce a visually polished presentation. They can summarize information quickly and create analysis that appears competent.

But if they do not know what they are really asking, when the result is valid, or how the output relates to their own judgment, then what they have learned may be only another form of imitation.

The music teacher chose a different path. He first brought the music back to a feeling the child could understand, then slowly added technique back in. Technique stopped being a way to comply with external expectation. It became a method for self-expression.

The same was true when the girl spoke about sunrise and sunset. The teacher did not give her a standard answer. He guided her to notice differences, adjust rhythm, and feel atmosphere. She was not merely learning how to play correctly. She was learning how to transform a vague inner experience into a form that could be heard.

That is the weight of the sentence:

“I am not teaching you technique. I am teaching you how to feel music.”

If we move that scene into AI education, the contrast becomes almost brutally clear.

When we teach students only how to prompt, adjust parameters, optimize workflows, and make outputs look professional, we may be doing something similar to what the parent did: placing a mature-looking structure on students, even when that structure may not belong to them.

Students may produce results. They may be praised for being efficient and up to date. But if they have never been trained to ask: “Is this the problem I truly need to solve?” “Under what conditions does this result become meaningful?” “What remains when the tool changes?” Then what they have learned is not education. It is performance outsourced to a tool.

AI can generate structurally complete content in seconds, just as computers can generate countless structurally correct pieces of music. If education teaches only that layer, the reason for human beings to stand in a classroom becomes thinner and thinner.

What that music lesson preserved was not technique. It preserved a position. Before expression, a person must be able to feel. Before generation, a person must know why they are speaking. Before using a tool, a person must know where the tool belongs.

That position cannot be replaced by AI. It also cannot be carried by AI on behalf of the student.

When Tools Can Generate Everything, What Position Should Humans Still Preserve?

By this point, one thing should be clear: in an environment where AI expands rapidly, the real educational question is not whether AI should be taught. The question is where students are placed when they learn.

If learning is centered on becoming fluent in a tool, a model generation, or a workflow, then the student’s position is clear: the student is expected to become a more efficient executor.

But in the world of AI, that position is narrowing quickly. Execution itself is being outsourced. Structure and format are being built in. Even output quality no longer depends entirely on repeated human practice.

Under these conditions, if education still trains students to become people who can make things look similar, fast, and complete, it may not necessarily be preparing them for the future. It may be pushing them toward a position that is increasingly replaceable.

What must be preserved is a different capacity: after tools become easily available, a person must still know why they are using them.

This is not a single skill. It is not a single knowledge point. It is a deeper position.

It includes the ability to judge whether a problem is worth solving before generating an answer. It includes the ability to identify under what conditions a result becomes meaningful after it appears. It includes the ability to understand again what one truly wants to do when a tool fails. It includes the ability to take responsibility for one’s choices when external answers become easy to obtain.

These capacities develop slowly. They are difficult to evaluate. They are not easily converted into performance indicators. They are not attractive in the short term, and they do not guarantee immediate reward. But precisely because of this, they cannot be quickly copied or fully automated.

That music lesson worked because the teacher chose to preserve this position. He did not rush to make the children “play correctly.” He first made sure that they could remain in the position of people who feel, understand, and express themselves.

AI education is the same. If the task of education is only to help students master the strongest tool of the moment, that education will soon expire. But if education helps students preserve a position that is not swallowed by tools, then even when tools continue to change, students can still stand again.

This is not conservatism. It is not resistance to technology. It is the most practical choice after recognizing the speed of change accurately. Because in an age where almost everything can be generated quickly, what is truly scarce is not output. It is understanding and judgment.

The Structural Risk of “Teaching Only the Best Students” in the Age of AI

In higher education, one often hears a certain form of self-positioning: teaching only at top universities, teaching only the most outstanding students, as if this alone proves teaching quality and professional authority.

In the past, this statement had an institutional logic. Higher education has long rewarded those who can perform reliably within existing rules, quickly master methods, adapt to standard answers, and succeed under clear evaluation systems. These abilities were indeed strongly related to career development, social mobility, and professional status.

But AI requires us to re-examine that premise.

From the perspective of capability structure, students who have been trained most completely by the system are often also the best at handling clearly defined problems. They understand rules quickly, master formats, optimize answers, and pursue the best performance within established scoring standards.

These abilities have not lost all value.

The real change is this: once a problem is clearly defined, once a process is broken down, and once standards are formalized, AI can increasingly outperform individual humans in speed, stability, consistency, and output volume.

This does not mean that top students are no longer excellent. It means that a structural shift has occurred: the capability set once treated by education systems as highly valuable is losing its exclusivity.

For that reason, “teaching only the best students” should not be only a prestige narrative in the age of AI. It should also become a warning signal.

If education still treats “whether someone is already an outstanding student by institutional standards” as the main entry point for AI education, it may end up strengthening the very form of ability most easily absorbed by automation: high adaptation to rules, high pursuit of format, and high dependence on explicit standards.

The real question is not whether students are good enough to learn AI. The question is whether education’s definition of “good” still corresponds to the abilities that will remain scarce in the future.

In the age of AI, students need more than the ability to solve problems better. They need the ability to identify whether the problem itself is valid before it has been clearly defined.

They need more than the ability to complete tasks faster. They need the ability to judge whether the purpose behind the task is worth pursuing.

They need more than the ability to look professional. They need the ability to know where they stand when tools, institutions, and standard answers are all changing quickly.

This question is not only about how AI courses should be designed. It is about what higher education is trying to train human beings to become in the age of AI.

If My Daughter Were Sitting in That Classroom, What Would I Want Her to Learn?

In the end, I have to return to the least abstract position. I am not standing on a podium and then turning around to criticize education.

On the contrary, precisely because I have not yet formally begun teaching AI within a university system, I must think through these questions first.

I have seen how institutions operate. I understand why evaluation, promotion, projects, and course design exist. I have studied formal frameworks related to AI, ethics, and law within the United Nations system, and I have completed related remote education and training. I also continue to work in the practical world, where tools, models, platforms, and workflows are rewritten again and again at high speed.

But beyond all these roles, there is one identity I cannot detach from: I am a father. My daughter is currently in university.

That means I cannot comfort myself merely by saying that a course is institutionally reasonable. I also cannot make decisions simply because something is easier to teach.

If she were sitting in that classroom today, what would I really want her to learn?

A tool operation that will expire quickly? A workflow that looks advanced but may survive only a short cycle? A capability that helps her produce polished results in the short term, without necessarily knowing why she is producing them? Or a capacity that can help her judge direction, understand context, express herself, and take responsibility for her choices even when the world changes?

This question cannot be answered by saying that the syllabus has been updated. It cannot be dismissed by saying that students need employability. Employability itself is being rewritten by AI.

If we train students only to become faster, more similar, and more complete executors, we may be helping them in the short term while pushing them in the long term toward a position that is easier to replace.

That music lesson has stayed with me because it answered something we often avoid:

If education can only teach skills, it will eventually lose to machines.

What is truly difficult, and truly worth preserving, is not “how to make it look more correct.” It is “why I am doing it this way.”

In an age where almost anything can be generated quickly, if education is unwilling to think through this question on behalf of students at least once, then even the newest, most popular, and most complete course design merely postpones the burden of choice and hands it back to students.

So before I truly begin teaching AI, I choose to stand here first and clarify the position. Not because I already have a complete answer. But because some questions, once ignored, are difficult to recover later.

For related material, see Teaching / Training and Semantic Decision Infrastructure, alongside companion essays on The Education Breakpoint in the AI Era: Elite Skills Are Being Replicated, and Human Capacity Is Being Rewritten, When Anxiety Comes from Asking the Wrong Questions: Parents in the AI Era Need Updated Understanding, Not More Control, and In the AI Era, Which Knowledge Is Least Suited to Becoming a Course|Non-SOPable Judgment.

FAQ|Frequently Asked Questions

1. Why should education in the age of AI not teach only tools?

Because tools change quickly, and operational workflows are constantly being built into platforms and models. If education teaches students only how to use one generation of tools, students may gain a rapidly depreciating skill set rather than a transferable long-term capacity. AI education must help students understand context, ask questions, judge results, and know why they are using a tool.

2. Does AI education still need to teach operational skills?

Yes. Tool operation can serve as an entry point, and students should understand how AI changes writing, research, design, data processing, and workflows. But operational skill cannot be the endpoint of education. What matters is whether students can judge when AI should be used, when it should not be used, and under what conditions an AI-generated result becomes meaningful.

3. Why can course design fail to keep up with AI tools?

Because education usually moves through semesters, academic years, syllabi, and review procedures, while AI tools, model capabilities, platform strategies, and workflows can change within months or even less. This creates a mismatch between institutional speed and tool speed. If a course only chases the newest tool, it may already be aging by the time it is formally taught.

4. What does the music lesson have to do with AI education?

The music lesson reminds us that technique is useful, but it should not become the core of education. The teacher did not only ask the child to play more correctly. He first helped the child find his own feeling, then placed technique back into expression. AI education is similar. Students should not only learn to generate polished outputs. They should know what they truly want to ask, what they want to express, and why the result matters.

5. Why are feeling, judgment, and expression more durable than technique?

Once a technique can be broken down, standardized, and repeated, it becomes easy for AI to absorb or automate. Feeling, judgment, and expression involve contextual understanding, problem selection, value prioritization, and responsibility. These capacities do not become obsolete simply because an interface changes, and they help a person reorient across different tools and different eras.

6. Is this essay against AI entering education?

No. This essay is not against AI, and it is not against tool instruction. It is against mistaking short-term trends, institutional incentives, or tool operation for education itself. AI is already part of the knowledge environment and work environment. Education must face it. The question is whether education can preserve the student’s position of understanding, judgment, questioning, and responsibility, rather than only training students to become more efficient executors.

7. What capacity should university students preserve most in the age of AI?

They should preserve the capacity to judge problems, understand contexts, and reorient themselves. More concretely, they need to judge whether a problem is worth solving before generating an answer, identify whether a result is valid after it appears, understand again what they truly want to do when tools change, and still take responsibility for their choices when external answers become easy to obtain.

8. Why does the author raise these questions before formally teaching AI?

Precisely because the author has not yet formally taught an AI course within a university system, he believes the educational position must be clarified first. This is not a rejection of institutions, but a form of prior responsibility: before teaching begins, one must ensure that what is being taught is not merely useful for the system, easy to evaluate, or temporarily attractive, but genuinely helpful for students facing long-term change in the age of AI.

References (APA)

  1. Acemoglu, D., & Restrepo, P. (2019). Automation and new tasks: How technology displaces and reinstates labor. Journal of Economic Perspectives, 33(2), 3–30. https://doi.org/10.1257/jep.33.2.3
  2. Autor, D. H., Levy, F., & Murnane, R. J. (2003). The skill content of recent technological change: An empirical exploration. The Quarterly Journal of Economics, 118(4), 1279–1333. https://doi.org/10.1162/003355303322552801
  3. Brynjolfsson, E., Rock, D., & Syverson, C. (2021). The productivity J-curve: How intangibles complement general purpose technologies. American Economic Journal: Macroeconomics, 13(1), 333–372. https://doi.org/10.1257/mac.20180386
  4. Collins, R. (2019). The Credential Society: An Historical Sociology of Education and Stratification. Columbia University Press. https://cup.columbia.edu/book/the-credential-society/9780231192354/
  5. Marginson, S. (2016). The dream is over: The crisis of Clark Kerr’s California idea of higher education. University of California Press.
  6. Nussbaum, M. C. (2010). Not for profit: Why democracy needs the humanities. Princeton University Press.
  7. OECD. (2021). AI and the Future of Skills, Volume 1: Capabilities and Assessments. OECD Publishing. https://www.oecd.org/en/publications/ai-and-the-future-of-skills-volume-1_5ee71f34-en.html
  8. Polanyi, M. (1966). The tacit dimension. University of Chicago Press.
  9. UNESCO. (2023). Guidance for generative AI in education and research. United Nations Educational, Scientific and Cultural Organization. https://www.unesco.org/en/articles/guidance-generative-ai-education-and-research

For collaboration and service scope, see Business Cooperation.

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