Effects of Stem Encoding and Linking on Knowledge Integration in College Students: The Roles of Self-Paced Learning and Integration Cues

This study examined how college students link separate but related pieces of information and self-derive new knowledge that was not directly taught, a process referred to as knowledge integration. In Experiment 1, college students learned the materials either at a self-paced or fixed-paced rate. The results showed that self-paced learning improved both stem fact recall and self-derivation performance, and that stem fact recall significantly predicted self-derivation performance. In Experiment 2, all college students learned the materials at a self-paced rate. When the learning materials contained related interfering information that belonged to the same thematic domain as the target stem facts but could not be used for self-derivation, self-derivation performance significantly decreased. However, providing brief integration cues before learning effectively reduced this adverse effect. These findings suggest that successful self-derivation is associated not only with stem fact accessibility but also with the linking of relevant information. From an educational perspective, allowing learners to control their own learning pace and providing brief cues about the relationships among related pieces of knowledge may help learners autonomously construct new knowledge from what they have already learned.

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Publication Details

Journal
The Journal of Experimental Education
Published
2026-09-13
DOI
https://doi.org/10.1080/00220973.2026.2730119
Primary Topic
Educational Research and Pedagogy
Type
article
Field-Weighted Citation Impact
0.00
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article

Effects of Stem Encoding and Linking on Knowledge Integration in College Students: The Roles of Self-Paced Learning and Integration Cues

Xiaomei Zhao, Jie Zeng, Xiaohui Xing
The Journal of Experimental Education
Educational Research and Pedagogy
article

Effects of Stem Encoding and Linking on Knowledge Integration in College Students: The Roles of Self-Paced Learning and Integration Cues

Xiaomei Zhao, Jie Zeng, Xiaohui Xing
article en

Abstract

This study examined how college students link separate but related pieces of information and self-derive new knowledge that was not directly taught, a process referred to as knowledge integration. In Experiment 1, college students learned the materials either at a self-paced or fixed-paced rate. The results showed that self-paced learning improved both stem fact recall and self-derivation performance, and that stem fact recall significantly predicted self-derivation performance. In Experiment 2, all college students learned the materials at a self-paced rate. When the learning materials contained related interfering information that belonged to the same thematic domain as the target stem facts but could not be used for self-derivation, self-derivation performance significantly decreased. However, providing brief integration cues before learning effectively reduced this adverse effect. These findings suggest that successful self-derivation is associated not only with stem fact accessibility but also with the linking of relevant information. From an educational perspective, allowing learners to control their own learning pace and providing brief cues about the relationships among related pieces of knowledge may help learners autonomously construct new knowledge from what they have already learned.

The Journal of Experimental Education
Hebei Normal University (CN)
Openalex Percentile: Top 9%
Educational Research and Pedagogy
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