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Inhibiting intuitive rules in a geometry comparison task: Do age level and math achievement matter?
Ronghuan Jiang1, Xiaodong Li2, Ping Xu2
1Faculty of Psychology, Beijing Normal University, Haidian, Beijing 100875, China.
Journal of Experimental Child Psychology
|June 10, 2019
Summary
Students need inhibitory control to overcome the misleading "larger area-larger perimeter" intuition in geometry problems. High-achieving students demonstrate better inhibitory control for these spatial reasoning tasks.
Area of Science:
- Cognitive Psychology
- Educational Psychology
- Geometry Education
Background:
- Many students incorrectly use the intuitive "larger area-larger perimeter" rule for perimeter comparison.
- This intuitive rule is often misleading in geometric reasoning tasks.
- The role of inhibitory control in overcoming such intuitive biases is not fully understood.
Purpose of the Study:
- To investigate the necessity of inhibitory control in perimeter comparison reasoning.
- To examine how inhibitory control efficiency varies with student age and academic achievement.
- To understand the cognitive mechanisms underlying geometry problem-solving.
Main Methods:
- A negative priming paradigm was employed to assess inhibitory control.
- Two experiments were conducted with primary school and college students.
- Participants solved perimeter comparison tasks under varying conditions.
Main Results:
- A negative priming effect, indicating inhibitory control, was observed in both primary and college students.
- The negative priming effect was present in both high-achieving and low-achieving primary students.
- High-achieving students showed a smaller magnitude of the negative priming effect compared to low-achieving students.
Conclusions:
- Successful geometry problem-solving, particularly perimeter comparison, requires inhibiting intuitive but incorrect rules.
- Inhibitory control efficiency is a key factor in overcoming misleading spatial intuitions.
- High-achieving students possess superior inhibitory control, enabling more accurate geometric reasoning.
Keywords:
GeometryInhibitory controlIntuitive ruleMath achievementNegative primingQuantitative reasoningMore Related Videos
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