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Learning from multiple representations: An examination of fixation patterns in a science simulation

•Fixation transitions between related representations was associated with learning.•Different types of learning associated with different types of transitions.•Learning was statistically independent of prior knowledge.•Learning not associated with frequency of fixations on individual representations...

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Bibliographic Details
Published in:Computers in human behavior 2014-06, Vol.35, p.234-242
Main Authors: O’Keefe, Paul A., Letourneau, Susan M., Homer, Bruce D., Schwartz, Ruth N., Plass, Jan L.
Format: Article
Language:English
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Summary:•Fixation transitions between related representations was associated with learning.•Different types of learning associated with different types of transitions.•Learning was statistically independent of prior knowledge.•Learning not associated with frequency of fixations on individual representations.•Learning not associated with duration of fixations on individual representations. The present study examined how the integration of multiple representations in a multimedia simulation was associated with learning in high school students (N=25). Using eye-tracking technology, we recorded fixations on different representations of the Ideal Gas Laws, as well as transitions between them, within a computer-based model that included a gas container with animated gas molecules, control sliders to adjust different gas variables, and a graph depicting the relations between the variables. As predicted, fixation transitions between conceptually related parts of the simulation were associated with different learning outcomes. Specifically, greater transition frequency between the gas container and the graph was related to better transfer, but not comprehension. In contrast, greater transition frequency between the control sliders and the graph was related to better comprehension, but not transfer. Furthermore, these learning outcomes were independent of learners’ prior knowledge, as well as the frequency and duration of fixations on any individual simulation element. This research not only demonstrates the importance of employing multiple representations in multimedia learning environments, but also suggests that making conceptual connections between specific elements of those representations can have an association with the level at which the information is learned.
ISSN:0747-5632
1873-7692
DOI:10.1016/j.chb.2014.02.040