Does Instruction-First or Problem-Solving-First Depend on Learners’ Prior Knowledge?

This study tested competing theories about the effectiveness of different instructional sequences for learners with different levels of prior knowledge. Across two classroom experiments, undergraduates learned about noncovalent interactions in biochemistry by either receiving explicit instruction before problem-solving (I-PS group) or engaging in problem-solving before explicit instruction (PS-I group). Then all students completed near- and far-transfer tests on the material. In Experiment 1, participants were introductory biology students ( $$n=\,367$$ ), who had relatively low prior knowledge of the topic. Results indicated that the PS-I group significantly outperformed the I-PS group on the near-transfer test, providing support for productive failure. In Experiment 2, participants were biochemistry students ( $$n=138$$ ), who had relatively higher prior knowledge of the topic. In contrast to Experiment 1, results indicated that the I-PS group significantly outperformed the PS-I group, providing support for cognitive load theory. Neither experiment showed significant effects of instructional sequences on the far-transfer test. Overall, the findings suggest the effects of instructional sequences on students with different levels of topic-specific prior knowledge may not be as straightforward as existing theories suggest.

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Publication Details

Journal
Educational Psychology Review
Published
2025-02-26
DOI
https://doi.org/10.1007/s10648-025-09993-3
Citations
2
Primary Topic
Visual and Cognitive Learning Processes
Type
article
Field-Weighted Citation Impact
4.24

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article

Does Instruction-First or Problem-Solving-First Depend on Learners’ Prior Knowledge?

Logan Fiorella, Paula P. Lemons, Chengwen He
2 citations
Educational Psychology Review
Visual and Cognitive Learning Processes
4.24
article

Does Instruction-First or Problem-Solving-First Depend on Learners’ Prior Knowledge?

Logan Fiorella, Paula P. Lemons, Chengwen He
article en
2 citations

Abstract

This study tested competing theories about the effectiveness of different instructional sequences for learners with different levels of prior knowledge. Across two classroom experiments, undergraduates learned about noncovalent interactions in biochemistry by either receiving explicit instruction before problem-solving (I-PS group) or engaging in problem-solving before explicit instruction (PS-I group). Then all students completed near- and far-transfer tests on the material. In Experiment 1, participants were introductory biology students ( $$n=\,367$$ ), who had relatively low prior knowledge of the topic. Results indicated that the PS-I group significantly outperformed the I-PS group on the near-transfer test, providing support for productive failure. In Experiment 2, participants were biochemistry students ( $$n=138$$ ), who had relatively higher prior knowledge of the topic. In contrast to Experiment 1, results indicated that the I-PS group significantly outperformed the PS-I group, providing support for cognitive load theory. Neither experiment showed significant effects of instructional sequences on the far-transfer test. Overall, the findings suggest the effects of instructional sequences on students with different levels of topic-specific prior knowledge may not be as straightforward as existing theories suggest.

Educational Psychology ReviewVol. 37(1)
University of Georgia (US)
Directorate for Education and Human Resources
Quality Education
Openalex Percentile: Top 8%
Visual and Cognitive Learning Processes
4.24
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