Confusion and its dynamics during device comprehension with breakdown scenarios
Sidney D'Mello1, Art Graesser2
1University of Notre Dame, USA.
Acta Psychologica
|June 29, 2014
Summary
Experiencing confusion during learning, especially when encountering device breakdowns, can enhance problem-solving skills. Successfully resolving confusion, particularly high confusion, leads to better knowledge acquisition.
Area of Science:
- Cognitive Psychology
- Educational Psychology
- Learning Sciences
Background:
- Complex learning and problem-solving can induce states of cognitive disequilibrium.
- Impasses and confusion are theorized to play a crucial role in learning processes.
- Understanding the dynamics of confusion is essential for optimizing learning environments.
Purpose of the Study:
- To investigate the incidence and dynamics of confusion during complex learning.
- To examine the relationship between confusion, its resolution, and subsequent learning outcomes.
- To explore the role of impasses and cognitive disequilibrium in the learning process.
Main Methods:
- Participants read illustrated texts on everyday devices followed by malfunction scenarios.
- Confusion levels were measured, and a second-by-second analysis tracked confusion dynamics.
- Knowledge assessments were conducted, controlling for factors like aptitude, engagement, and frustration.
Main Results:
- Breakdown scenarios elicited significantly more confusion than control scenarios.
- Two distinct confusion trajectories were identified: partial resolution versus persistent confusion.
- Successful partial confusion resolution predicted better knowledge acquisition, especially for highly confused individuals.
Conclusions:
- Confusion, triggered by impasses, is a key element in complex learning.
- Effortful resolution of confusion, even partial, positively impacts learning outcomes.
- Findings support theories emphasizing the constructive role of cognitive disequilibrium in learning.
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