Even people who use generative AI proficiently can lose control of their thinking. In particular, people who have achieved strong results in the past are likely to trust familiar formulas for success and confuse results quickly produced by AI with their own judgment.
However, the claim that “competent people are the first to collapse” is not a proven universal law. The core issue is not competence itself, but the vulnerability that arises when overconfidence in existing abilities, unverified automation, and avoidance of new trial and error are combined.
What Does the “Competency Trap” Mean?
The competency trap refers to a state in which people believe that knowledge and procedures that worked in the past will continue to work in a new environment. Experts have more experience than beginners, but that very experience may lead them to underestimate changed conditions.
In a generative AI environment, problems emerge through the following pathways.
| Risk pathway | How it appears | Signs to look for | Response principle |
|---|---|---|---|
| Fixation on a success formula | Repeating only methods that worked before | Using new tools only to speed up existing work | Reexamine the purpose and assumptions of the work first |
| Automation bias | Assuming that AI answers are basically correct | Submitting work without checking sources and calculations | Establish an independent verification process for every important claim |
| Identity threat | Interpreting AI performance as a decline in one’s own value | Responding through excessive avoidance or indiscriminate accumulation of certifications | Break capabilities down beyond the job itself into problem definition, judgment, and relationship skills |
| Avoidance of trial and error | Choosing only the fastest answer | Records of failure and field observations disappear | Repeat small experiments and record the results |
| Illusion of learning | Mistaking possession of an output for understanding it | Getting stuck when asked to explain or modify it | Check whether it can be reproduced without AI and whether counterexamples can be created |
The Kodak case is often used to explain the competency trap, but care must be taken not to oversimplify it. The fact that a Kodak engineer developed an early digital camera cannot by itself explain the company’s later crisis. It is a complex management case in which technological transition, the profit structure of the existing business, competition, investment, and execution decisions all played a role. The limited lesson that can be drawn from this case is that what matters is not whether an organization “knew about a new technology first,” but whether it actually responded to changes that could cannibalize its existing strengths.
Outsourcing Thought and Cognitive Offloading
The phenomenon of entrusting memory or calculations to external tools is called cognitive offloading. Notes, calculators, and search engines are all included. Therefore, entrusting some tasks to AI cannot in itself be defined as intellectual decline.
The difference lies in what is delegated and what is retained.
Beneficial Delegation
- Have AI perform an initial classification of lengthy materials, then check the original text yourself.
- Ask for counterexamples to a hypothesis you created.
- Automate repetitive format conversions or sentence editing.
- Generate several options, then set the final criteria and make the judgment yourself.
Risky Delegation
- Entrust AI with the process starting from deciding what problem should be solved.
- Submit an answer you do not understand after merely adjusting its style.
- Do not verify the sources of facts, calculations, or quotations.
- Favor plausible-sounding statements even when they conflict with your own experience.
- Treat AI’s confident wording as evidence of accuracy.
To preserve thinking ability, the tasks that people must perform before and after using AI should be separated. The basic principle is to set goals and evaluation criteria before use, and perform fact-checking and responsible decision-making after use.
Do AI Answers Turn People into “Copies”?
When multiple people ask similar questions and use the first answer unchanged, their results are likely to be similar. Because generative AI produces statistically appropriate outputs based on training data and user instructions, requests lacking context are likely to receive conventional structures and expressions.
However, figures such as “9 out of 10 students give the same answer” should not be generalized without a separate study. The similarity of results varies depending on the model, prompt, task type, evaluation method, and revision process.
Creating distinctive results requires the following kinds of personal material, rather than elaborate prompts.
- Cases you directly observed and records of failure
- Your own selection criteria and interests
- Constraints specific to a particular setting
- Reasons you disagree with existing claims
- Counterexamples and prohibited conditions for evaluating the result
- An editing history showing where you deleted or rewrote the AI draft
“Originality” is not a label indicating that AI was never used. It becomes evident when you can explain which problem you chose, what you observed, and on what grounds you accepted or rejected AI’s suggestions.
What Matters More Than Questions That Confound AI
The distinction that AI only produces standardized correct answers while humans alone excel at unconventional questions is overly simplistic. The latest generative AI can also use metaphors, generate ideas and questions, and propose hypotheses. Conversely, people can also repeat familiar answers.
In the example where someone answers the question “If you eat 3 out of 10 apples, how many remain?” by saying “The 3 apples you ate remain in your body,” the answer is less a proof of creativity than a play on words that changes the meaning of “remain.” Such ideas can be useful, but factual answers must be distinguished from creative reinterpretations.
A good question is not one that gives AI difficulty, but one that reveals an uncertainty worth investigating or acting on.
Judge-Type Questions and Learner-Type Questions
| Question type | Example | Expected result |
|---|---|---|
| Judge-type | Who ruined this and caused the failure? | May remain mired in disputes over responsibility |
| Learner-type | Which assumption was wrong, and what can be changed in the next experiment? | Explores causes and alternatives |
| Confirmation-type | What evidence supports my opinion? | May reinforce confirmation bias |
| Falsification-type | What observation would show that this conclusion is wrong? | Increases the possibility of correcting judgment |
| Problem-raising type | Does the metric we are currently optimizing represent the actual objective? | Reexamines the definition of the problem |
The idea that interest and affection can enrich questions is useful philosophical advice. However, the ability to ask questions also requires background knowledge, observation, logic, falsifiability, and an understanding of stakeholders.
People Who Follow Manuals and People Who Create Methods
AI is already lowering the cost of various tasks, including document summarization, drafting, code generation, and data classification. Under these circumstances, it is difficult to differentiate yourself merely by following manuals quickly.
Having extensive experience alone does not create a method of your own. You must be able to separate conditions from results within that experience and reuse them in future work.
- Write down the problem you are trying to solve and the criteria for success.
- Select one variable to change from the existing method.
- Implement it on a small scale and compare the expected and actual results.
- Look for the cause of failure in conditions and processes rather than people’s willpower.
- Record both the principle to reuse and the conditions under which it should not be applied.
Trial and error is not always valuable. In areas where failure is costly, such as safety incidents, medicine, law, and security, validated guidelines and expert supervision should be followed first. A distinctive method is not an adventure that ignores principles, but the result of accumulating observations and experiments within permitted boundaries.
When “Quitting” Is Needed More Than Persistence
Advice to never give up can overlook physical safety, irreversible losses, and changing opportunities. Conversely, if you stop whenever difficulties arise, sufficient learning is unlikely to occur. What matters is not deciding whether persistence or giving up is more moral, but designing stopping criteria before you begin.
Stopping or changing direction should be considered under the following conditions.
- An immediate risk to life or health has emerged.
- Losses have exceeded a predetermined limit.
- Reproducible evidence has shown that a core assumption is wrong.
- Additional input will yield almost no new information.
- A safer, less costly alternative has been identified.
- The goal no longer aligns with your values or current circumstances.
Stopping is not an act of erasing failure. When you record what you learned and which signals should prompt you to change direction earlier next time, stopping also becomes a learning asset.