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A Black learner, South Asian educator, and East Asian learner compare red and amber heat-transfer models around a glass-enclosed metal rod
教育理論中核2026年7月28日· 2

Conceptual Change

How learners reorganize persistent explanations, why contradictory facts are insufficient, and how prediction, evidence, model comparison, and transfer support change.

conceptual changeprior conceptionsmodel revision

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完全なレッスン要約

Conceptual change concerns learning that reorganizes an existing way of understanding, not merely adding another fact. Learners often enter a lesson with explanations built from everyday experience, previous teaching, language, and culture. These ideas may be productive in familiar settings even when they conflict with a disciplinary model. For example, a learner may treat force as something a moving object contains because that account seems to explain ordinary motion. Calling such thinking careless misses why it persists.

New information does not automatically replace an established conception. Learners can memorize a formula while interpreting it through the old framework, compartmentalize school knowledge, or explain away conflicting evidence. Conceptual-change research has proposed that learners are more likely to revise when they recognize limits in the current account and encounter an alternative that is understandable, plausible, and useful. These conditions are helpful design questions, not a guaranteed linear recipe. Emotion, identity, trust, language, and classroom relationships also shape whether learners reconsider an idea. Change may be gradual, uneven, and context-specific; a learner can use a scientific account in one setting and return to an intuitive account in another.

Some difficulties involve more than a missing proposition. Learners may assign a concept to the wrong kind of category, such as understanding heat as a material substance rather than a process of energy transfer. Others may organize many observations through a broader framework that resists piecemeal correction. Teachers therefore need diagnostic evidence about the structure of reasoning. A right answer on a familiar item may conceal an unchanged explanation, while a prediction, drawing, comparison, or transfer problem can reveal how ideas are connected.

Instruction can support change by eliciting initial explanations before correction, creating a meaningful need to compare them with evidence, and making an alternative model explicit. Contrasting cases, demonstrations, simulations, analogies, discussion, and carefully sequenced questions can expose where each model succeeds or fails. Learners should explain why evidence matters, revise representations, and apply the new account to unfamiliar situations. Anomalies alone are insufficient: without guidance, a surprising result may be ignored, misread, or absorbed into the existing schema.

In education, the aim is not to erase every intuitive idea but to build more powerful, appropriately bounded explanations. Teachers can treat learners’ reasoning respectfully while holding claims accountable to evidence. AI can generate alternative examples or simulate a dialogue, but it may invent misconceptions, overstate consensus, or provide a polished correction before the learner’s thinking is visible. A strong routine asks learners to predict, explain, test, compare models, revise, and transfer. Conceptual change is demonstrated when the learner can use the revised framework deliberately and explain its advantage, limitations, and relation to prior thinking—not when the learner simply repeats the teacher’s preferred sentence.