Why Don't Students Like School?: A Cognitive Scientist Answers Questions About How the Mind Works and What It Means for the Classroom: Summary & Key Insights

It sounds almost heretical to admit that thinking is unnatural for humans, but that’s precisely the starting point of our inquiry. The human brain evolved not for extended reasoning but for quick, efficient action that ensures survival. Most of the time, we rely on memory rather than deliberate thought; we retrieve what has worked before instead of puzzling anew each time. Thinking becomes necessary only when we encounter something novel or problematic—and that’s where both opportunity and frustration arise.

When I say the mind is designed to avoid thinking, I don’t mean that we are incapable of it—only that we avoid it when possible. Thinking demands effort, and effort without reward leads to avoidance. The hook, then, lies in curiosity: a cognitive itch provoked when we glimpse a solvable problem. A well-posed question—neither too simple nor too opaque—draws the mind forward. That’s why the most engaging classrooms are those that choreograph this balance. If material feels impossible, students give up; if it’s too easy, they tune out. The zone between, where struggle meets the possibility of success, is where learning thrives.

From this understanding flows a practical truth: teachers must design lessons around problems that invite thought. Presenting facts in isolation rarely works, because without context, no puzzle emerges. Curiosity hinges on incomplete patterns—what I know and what I almost know. By constructing lessons that highlight this gap and offering clues for resolution, teachers transform mere information into meaningful exploration. Students, in turn, begin to like school because it becomes a place that honors their natural drive to make sense of the world.

Education often splits along a false divide between facts and thinking skills. Teachers are urged to prioritize critical thinking, creativity, or problem-solving, yet lament that standardized tests seem to reward rote knowledge instead. The truth, illuminated by decades of cognitive research, is that these are not opposing aims. Thinking skills depend on knowledge; they are inseparable.

When you ask students to think critically about history, they must first know historical facts—the sequence of events, the motives of actors, the context of decisions. Without such knowledge held in long-term memory, working memory soon overloads. The mind cannot juggle multiple unknowns simultaneously. Knowledge frees cognitive resources; it’s what allows experts to reason fluidly. In contrast, when students lack foundational facts, even basic reasoning stalls. Thus, genuine critical thinking begins with automatic recall of factual material.

In very practical terms, this means that teachers should not apologize for teaching facts. Facts are the building blocks of comprehension, the scaffolding upon which complex thought rests. But the way they are taught matters immensely. Facts learned in meaningful contexts—through stories, comparisons, or problem-solving—stick, while disconnected lists evaporate. The more richly connected a fact is within a network of knowledge, the easier it is to retrieve and use creatively. The best learning environments therefore refuse to dichotomize memorization and interpretation. They weave them together until the distinction disappears.